mhurhangee/patent-ind-claim-en huggingface dataset:
A camera arrangement comprising: a camera base for mounting the camera arrangement to a surface, said camera base comprising a central receiving portion ; a dome (4; 104) comprising a central section comprising a through-going opening ; and an attachment device configured to attach the dome to the central receiving portion , the attachment device comprising an attachment portion configured to extend through the through-going opening of the dome and to lockingly engage a complementary attachment portion of the central receiving portion , and an abutment portion configured to abut an outside surface of the dome . a camera base for mounting the camera arrangement to a surface, said camera base comprising a central receiving portion ; a dome (4; 104) comprising a central section comprising a through-going opening ; and an attachment device configured to attach the dome to the central receiving portion , the attachment device comprising an attachment portion configured to extend through the through-going opening of the dome and to lockingly engage a complementary attachment portion of the central receiving portion , and an abutment portion configured to abut an outside surface of the dome . an attachment portion configured to extend through the through-going opening of the dome and to lockingly engage a complementary attachment portion of the central receiving portion , and an abutment portion configured to abut an outside surface of the dome .
A signal processing device configured to perform: first volume processing to attenuate by a first attenuation amount an audio signal based on a volume value that is received from a user, low pass filter processing to extract a low frequency component of the audio signal to which the first volume processing has been performed, low frequency equalizing processing to boost the low frequency component of the audio signal to which the low pass filter processing has been performed, compression processing to compress the audio signal to which the low frequency equalizing processing has been performed in case that the level of the audio signal to which the low frequency equalizing processing has been performed is not less than a predetermined signal level, high pass filter processing to extract a high frequency component of the audio signal to which the first volume processing has been performed, second volume processing to attenuate by a second attenuation amount the audio signal to which the high pass filter processing has been performed based on the volume value that is received from the user, and addition processing to add the audio signal to which the compression processing has been performed and the audio signal to which the second volume processing has been performed. first volume processing to attenuate by a first attenuation amount an audio signal based on a volume value that is received from a user, low pass filter processing to extract a low frequency component of the audio signal to which the first volume processing has been performed, low frequency equalizing processing to boost the low frequency component of the audio signal to which the low pass filter processing has been performed, compression processing to compress the audio signal to which the low frequency equalizing processing has been performed in case that the level of the audio signal to which the low frequency equalizing processing has been performed is not less than a predetermined signal level, high pass filter processing to extract a high frequency component of the audio signal to which the first volume processing has been performed, second volume processing to attenuate by a second attenuation amount the audio signal to which the high pass filter processing has been performed based on the volume value that is received from the user, and addition processing to add the audio signal to which the compression processing has been performed and the audio signal to which the second volume processing has been performed.
A fluid delivery device for delivering therapeutic fluid to a patient comprising a dispensing unit comprising: a fluid delivery tube including an occlusion detection portion ; a reservoir coupled to said fluid delivery tube and configured to deliver therapeutic fluid to the patient via said fluid delivery tube . an occlusion detection sensor configured to be coupled to said fluid delivery tube , said occlusion detection sensor being further configured to detect alteration of a shape of said occlusion detection portion when a change in fluid pressure occurs within said fluid delivery tube ; and a PCB comprising a processor and other electronic components collecting data from the occlusion detection sensor and configured to detect occlusion within said fluid delivery tube and to detect normal delivery of therapeutic fluid to the patient based on a predetermined pressure value of the fluid corresponding to said normal delivery; characterized in that : the dispensing unit includes: a reusable part including components of a fluid metering system, electronic circuitry and other components; and a disposable part including the occlusion detection portion of the fluid delivery tube , the dispensing unit and the occlusion detector sensor ; with the dispensing unit and the occlusion detection sensor being configured to become operative upon coupling together the reusable part and the disposable part . a fluid delivery tube including an occlusion detection portion ; a reservoir coupled to said fluid delivery tube and configured to deliver therapeutic fluid to the patient via said fluid delivery tube . an occlusion detection sensor configured to be coupled to said fluid delivery tube , said occlusion detection sensor being further configured to detect alteration of a shape of said occlusion detection portion when a change in fluid pressure occurs within said fluid delivery tube ; and a PCB comprising a processor and other electronic components collecting data from the occlusion detection sensor and configured to detect occlusion within said fluid delivery tube and to detect normal delivery of therapeutic fluid to the patient based on a predetermined pressure value of the fluid corresponding to said normal delivery; characterized in that : the dispensing unit includes: a reusable part including components of a fluid metering system, electronic circuitry and other components; and a disposable part including the occlusion detection portion of the fluid delivery tube , the dispensing unit and the occlusion detector sensor ; with the dispensing unit and the occlusion detection sensor being configured to become operative upon coupling together the reusable part and the disposable part .
Apparatus, comprising: Circuitry , configured: to generate a first output , based on an intracardiac electrocardiogram (ECG) voltage received from a helical conducting element , and to generate a second output , based on a voltage difference that was induced across the conducting element by a magnetic field; a processor , configured to build an electroanatomical map, based on the first output and the second output; and a catheter , the catheter comprising: a plurality of splines at a distal end of the catheter; and a plurality of helical conducting elements disposed on the splines; wherein the circuitry is configured to generate the first output based on an intracardiac electrocardiogram (ECG) voltage received from a first one of the plurality of helical conducting elements, and the circuitry is configured to generate the second output based on a voltage difference that was induced across the first one of the plurality of helical conducting elements by a magnetic field; and wherein the apparatus further comprises an electrically-insulative layer covering at least a majority of each of the helical conducting elements. Circuitry , configured: to generate a first output , based on an intracardiac electrocardiogram (ECG) voltage received from a helical conducting element , and to generate a second output , based on a voltage difference that was induced across the conducting element by a magnetic field; to generate a first output , based on an intracardiac electrocardiogram (ECG) voltage received from a helical conducting element , and to generate a second output , based on a voltage difference that was induced across the conducting element by a magnetic field; a processor , configured to build an electroanatomical map, based on the first output and the second output; and a catheter , the catheter comprising: a plurality of splines at a distal end of the catheter; and a plurality of helical conducting elements disposed on the splines; a plurality of splines at a distal end of the catheter; and a plurality of helical conducting elements disposed on the splines; wherein the circuitry is configured to generate the first output based on an intracardiac electrocardiogram (ECG) voltage received from a first one of the plurality of helical conducting elements, and the circuitry is configured to generate the second output based on a voltage difference that was induced across the first one of the plurality of helical conducting elements by a magnetic field; and wherein the apparatus further comprises an electrically-insulative layer covering at least a majority of each of the helical conducting elements.
A communication processing method, comprising: receiving(S240), by a target node, a second message sent by a synchronization source node via at least one intermediate node, wherein the second message carries a receiving time of a first message from the target node at the synchronization source node and waiting time information of the first message at each of the at least one intermediate node; and determining(S260), by the target node, a clock deviation between the target node and the synchronization source node based on a sending time of the first message at the target node and the time information in the second message; wherein the method is characterized by : sending, by the target node, a fourth message, wherein the fourth message is used to indicate a hop count between the target node and the synchronization source node, and the hop count is used by another target node to determine whether to perform clock synchronization with the target node. receiving(S240), by a target node, a second message sent by a synchronization source node via at least one intermediate node, wherein the second message carries a receiving time of a first message from the target node at the synchronization source node and waiting time information of the first message at each of the at least one intermediate node; and determining(S260), by the target node, a clock deviation between the target node and the synchronization source node based on a sending time of the first message at the target node and the time information in the second message; wherein the method is characterized by : sending, by the target node, a fourth message, wherein the fourth message is used to indicate a hop count between the target node and the synchronization source node, and the hop count is used by another target node to determine whether to perform clock synchronization with the target node.
Multipurpose container (1;100;200) for ready-to-eat food having a containing base and a lid for closing said base , both made of a food-grade metallic material, said base and/or said lid having at least one through-hole for allowing vapours to escape, the container being characterized in that said base and said lid are made of a thin sheet of metallic material having a thickness of between 0.1 mm and 0.5 mm, and in that the inner surface of the lid is lined at least partially with a layer of a heat-insulating and/or moisture absorbent material.
A reciprocating compressor , comprising: a cylinder body defining a cylinder , the cylinder having a cylinder lateral wall and a cylinder axis (A), a piston movable inside the cylinder , at least one valve configured to selectively open and close a valve opening formed in the cylinder lateral wall , and at least a cylinder head that at least partially protrudes towards the piston inside the cylinder and that has a recessed surface at least partially facing the valve opening , characterized in that an intersection between at least a plane containing the cylinder axis (A) and the recessed surface is a first curve having at least a convex part facing the valve opening , and that an intersection between at least one of three planes (P1, P2, P3) perpendicular to the cylinder axis (A) and the recessed surface is a second , a third or a fourth curve having a concavity facing the valve opening . a cylinder body defining a cylinder , the cylinder having a cylinder lateral wall and a cylinder axis (A), a piston movable inside the cylinder , at least one valve configured to selectively open and close a valve opening formed in the cylinder lateral wall , and at least a cylinder head that at least partially protrudes towards the piston inside the cylinder and that has a recessed surface at least partially facing the valve opening , characterized in that an intersection between at least a plane containing the cylinder axis (A) and the recessed surface is a first curve having at least a convex part facing the valve opening , and that an intersection between at least one of three planes (P1, P2, P3) perpendicular to the cylinder axis (A) and the recessed surface is a second , a third or a fourth curve having a concavity facing the valve opening .
A rearview mirror assembly for a vehicle , comprising a base part having a mounting interface for rigidly attaching the base part to a structural component of the vehicle , a mirror part carrying a reflective surface , a housing part covering at least a part of one side of the mirror part , and an actuator unit for moving the housing part with respect to the base part , wherein the mirror part is rigidly attached to the housing part , wherein the housing part is movably coupled to the base part , such that an orientation of the mirror part is adjustable, wherein a camera unit is attached to the base part via a camera support part , and wherein the camera support part extends through the actuator unit . a mirror part carrying a reflective surface , a housing part covering at least a part of one side of the mirror part , and an actuator unit for moving the housing part with respect to the base part , wherein the mirror part is rigidly attached to the housing part , wherein the housing part is movably coupled to the base part , such that an orientation of the mirror part is adjustable, wherein a camera unit is attached to the base part via a camera support part , and wherein the camera support part extends through the actuator unit .
A method for determining, whether a web browser has accessed a third party web page , the method comprising: providing a first party web page by a first party web server , which first party web page comprises a loading script element , wherein the loading script element comprises script code for loading a timing script element into the web browser from a second party web server ; processing the first party web page with the web browser , such that the timing script element instructs the web browser to load an embedded element , which is embedded into the third party web page , into the web browser for a first time and to determine a first loading time (t 1 ) of the embedded element , and the timing script element instructs the web browser to load the embedded element into the web browser for a second time and to determine a second loading time (t 2 ) of the embedded element , wherein the timing script element requests an URL for the embedded element from the second party web server or the URL is encoded into the timing script element ; deciding based on the first loading time (t 1 ) and the second loading time (t 2 ), whether the web browser has previously loaded the third party web page ; wherein the web browser is instructed to at least once load the embedded element via an alternative URL containing a random query string, before the first loading time (t 1 ) and the second loading time (t 2 ) are determined. providing a first party web page by a first party web server , which first party web page comprises a loading script element , wherein the loading script element comprises script code for loading a timing script element into the web browser from a second party web server ; processing the first party web page with the web browser , such that the timing script element instructs the web browser to load an embedded element , which is embedded into the third party web page , into the web browser for a first time and to determine a first loading time (t 1 ) of the embedded element , and the timing script element instructs the web browser to load the embedded element into the web browser for a second time and to determine a second loading time (t 2 ) of the embedded element , wherein the timing script element requests an URL for the embedded element from the second party web server or the URL is encoded into the timing script element ; deciding based on the first loading time (t 1 ) and the second loading time (t 2 ), whether the web browser has previously loaded the third party web page ; wherein the web browser is instructed to at least once load the embedded element via an alternative URL containing a random query string, before the first loading time (t 1 ) and the second loading time (t 2 ) are determined.
A method of calculating a load (L) lifted by a lifting arm of a machine , the method comprising: receiving a signal from an axle sensor , said signal representing a force exerted on an axle prior to a load (L) being applied to the lifting arm; receiving a signal from the axle sensor , said received signal representing a force exerted on the axle as a result of lifting the load (L); receiving a further signal from a further sensor , said received further signal representing an angle or slope of the lifting arm relative to a chassis of the machine ; wherein the lifting arm is an extendable lifting arm , the method further comprising receiving an arm signal from an arm sensor , the arm signal representing an extension of the lifting arm ; receiving a chassis signal from a chassis sensor ; and calculating, from the signal, the received signal, the received further signal, the chassis signal and the arm signal, the weight of the load (L) lifted by the lifting arm ; characterised in that said chassis sensor is configured for measuring an angle of the chassis relative to the horizontal; and in that said chassis signal represents said angle of the chassis relative to the horizontal. receiving a signal from an axle sensor , said signal representing a force exerted on an axle prior to a load (L) being applied to the lifting arm; receiving a signal from the axle sensor , said received signal representing a force exerted on the axle as a result of lifting the load (L); receiving a further signal from a further sensor , said received further signal representing an angle or slope of the lifting arm relative to a chassis of the machine ; wherein the lifting arm is an extendable lifting arm , the method further comprising receiving an arm signal from an arm sensor , the arm signal representing an extension of the lifting arm ; receiving a chassis signal from a chassis sensor ; and calculating, from the signal, the received signal, the received further signal, the chassis signal and the arm signal, the weight of the load (L) lifted by the lifting arm ; characterised in that said chassis sensor is configured for measuring an angle of the chassis relative to the horizontal; and in that said chassis signal represents said angle of the chassis relative to the horizontal.
A computer-implemented medical method of determining a virtual trajectory with respect to a three-dimensional virtual representation of a patient's body part , the method comprising the following steps: a) image data is acquired (S11) which describes the three-dimensional virtual representation of the patient's body part ; b) position data is acquired (S12) which describes a spatial position of a user's visual axis within a virtual-world co-ordinate system ; c) visualization data is determined (S13) based on the image data and the position data, which describes an image of the virtual representation of the patient's body part as seen along the user's visual axis within the virtual-world co-ordinate system ; d) virtual-world trajectory data is determined (S14) based on the position data, which describes the spatial position of the virtual trajectory with respect to the virtual representation of the patient's body part within the virtual-world co-ordinate system , characterised in that the spatial position of the virtual trajectory is defined to coincide with the spatial position of the user's visual axis within the virtual-world co-ordinate system until a desired spatial position of the virtual trajectory with respect to the virtual representation of the patient's body part is established by a user input. a) image data is acquired (S11) which describes the three-dimensional virtual representation of the patient's body part ; b) position data is acquired (S12) which describes a spatial position of a user's visual axis within a virtual-world co-ordinate system ; c) visualization data is determined (S13) based on the image data and the position data, which describes an image of the virtual representation of the patient's body part as seen along the user's visual axis within the virtual-world co-ordinate system ; d) virtual-world trajectory data is determined (S14) based on the position data, which describes the spatial position of the virtual trajectory with respect to the virtual representation of the patient's body part within the virtual-world co-ordinate system ,
A method to determine a quantity and a viscosity of a liquid in a chamber , the method comprising: controlling a motor to rotate a mixer in the chamber at a known first speed; receiving a measurement of electrical current drawn by the motor at the known first speed; controlling the motor to rotate the mixer in the chamber at a known second speed; receiving a measurement of electrical current drawn by the motor at the known second speed; and determining, through a look-up table and the measured electrical current for the known first speed and the measured electrical current for the known second speed, the quantity of liquid and the viscosity of the liquid in the chamber . controlling a motor to rotate a mixer in the chamber at a known first speed; receiving a measurement of electrical current drawn by the motor at the known first speed; controlling the motor to rotate the mixer in the chamber at a known second speed; receiving a measurement of electrical current drawn by the motor at the known second speed; and determining, through a look-up table and the measured electrical current for the known first speed and the measured electrical current for the known second speed, the quantity of liquid and the viscosity of the liquid in the chamber .
Safety device for a bandsaw , said safety device being of the type comprising a frame and a pair of jaws rotatably mounted on the frame , this frame being suitable for being mounted on a framework of the bandsaw with the jaws disposed on either side of a blade of this bandsaw , the device further comprising an actuating rod slidably mounted on the frame , and at least one elastic return member constraining the sliding of the actuating rod , whereas a two-way transmission transforms the sliding of the actuating rod into a rotation of the pair of jaws , characterised in that the device further comprises an electromagnetic actuator rigidly connected to the frame and a retaining member rigidly connected to the electromagnetic actuator , in that the actuating rod is arranged with a receiving portion which is capable of engaging with the retaining member when the actuating rod is in a first position relative to the frame , the two-way transmission being arranged so that the jaws are distant from one another when the actuating rod is in this first relative position, and in that the electromagnetic actuator maintains the engagement between the retaining member and the receiving portion when it is supplied with current.