mhurhangee/patent-ind-claim-en huggingface dataset:
A system for sensing defecation events of a subject, the system comprising: a wearable device configured to be carried on a torso of the subject, the wearable device comprising: a mechanomyogram sensor configured to sense abdominal muscle movement signals of the subject; and a processor operably coupled to the mechanomyogram sensor, the processor configured to determine occurrence of defecation events of the subject based on abdominal muscle movement signals sensed by the mechanomyogram sensor. a wearable device configured to be carried on a torso of the subject, the wearable device comprising: a mechanomyogram sensor configured to sense abdominal muscle movement signals of the subject; and a processor operably coupled to the mechanomyogram sensor, the processor configured to determine occurrence of defecation events of the subject based on abdominal muscle movement signals sensed by the mechanomyogram sensor.
Key with a key head and with a key shank , for actuating a locking cylinder , in particular for a mechatronic lock-key system, comprising key electronics which transmit a coded opening signal to a locking cylinder and a generator for supplying the key electronics with electrical energy, in that an energy storage device with at least one capacitor for storing the electrical energy generated by the generator is arranged after the generator or between the generator and the key electronics , characterized in that, the generator charges the energy storage device and/or the at least one capacitor with a voltage which is at least twice or at least three times or at least four times, in particular several times, the supply voltage of the key electronics , in that the energy storage device has a step-up converter or a boost converter or a SEPIC converter in order to increase the voltage of the generator for charging the energy storage device. comprising key electronics which transmit a coded opening signal to a locking cylinder and a generator for supplying the key electronics with electrical energy, in that an energy storage device with at least one capacitor for storing the electrical energy generated by the generator is arranged after the generator or between the generator and the key electronics , characterized in that, the generator charges the energy storage device and/or the at least one capacitor with a voltage which is at least twice or at least three times or at least four times, in particular several times, the supply voltage of the key electronics , in that the energy storage device has a step-up converter or a boost converter or a SEPIC converter in order to increase the voltage of the generator for charging the energy storage device.
Apparatus for producing an impingement jet (P), which forms ring vortices , in a turbomachine, characterized by at least one fluidic switching element which has: - an input branch with an input opening via which cooling gas (G) can be supplied to the fluidic switching element , - at least two output branches which are formed downstream of the input branch and which each end in an output opening , - a branching at which the input branch is split into the at least two output branches , and - outer control means (31, 32, S) for controlling the cooling gas (G) flowing in the input branch in such a way that the cooling gas (G) is alternately conducted into one or the other of the output branches , wherein an impingement jet (P) which pulsates at a frequency (f) is produced in each output branch , wherein the outer control means (31, 32, S) comprise at least one periodically fluctuating control mass flow (S) and provide control on one side or on both sides, wherein the one control mass flow (S) or the two control mass flows (S) are supplied to the fluidic switching element via one or two control feed lines , wherein the fluidic switching element is designed and provided for outputting cooling gas at the output openings at an average outflow speed (u) and a frequency (f) that the impingement jet (P) which emerges from the output openings forms ring vortices . - an input branch with an input opening via which cooling gas (G) can be supplied to the fluidic switching element , - at least two output branches which are formed downstream of the input branch and which each end in an output opening , - a branching at which the input branch is split into the at least two output branches , and - outer control means (31, 32, S) for controlling the cooling gas (G) flowing in the input branch in such a way that the cooling gas (G) is alternately conducted into one or the other of the output branches , wherein an impingement jet (P) which pulsates at a frequency (f) is produced in each output branch , wherein the outer control means (31, 32, S) comprise at least one periodically fluctuating control mass flow (S) and provide control on one side or on both sides, wherein the one control mass flow (S) or the two control mass flows (S) are supplied to the fluidic switching element via one or two control feed lines ,
Machine for manufacturing a plate designed to produce a wall or a floor, comprising : - a formwork designed to receive a material to be hardened, the formwork comprising a bottom extending in a first direction and in a second direction perpendicular to the first direction, and a side wall extending in a direction perpendicular to the bottom ; - a frame mounted for translational movement along a translation axis (A) relative to the formwork , the translation axis (A) extending in a substantially horizontal direction intersecting the first direction ; - a ruler arranged to partially cover the material to be hardened disposed in the formwork in a vertical direction and extending from one edge of the formwork to the other in the first direction, the ruler being mounted so as to be movable relative to the formwork along the axis of translation (A); - means for moving the ruler configured to move the ruler from one end to another end of the formwork along the translation axis (A) and in a direction of movement; characterized in that the machine further comprises: - a vertical oscillation generator attached to the ruler and configured to apply at least one vertical reciprocating movement to the ruler and compress the overthickness of the material to be hardened protruding from the side wall , the vertical oscillation generator performing several vertical reciprocating movements during the movement of the ruler from one end to the other of the formwork along the axis of translation (A); and in that the ruler is mounted so as to be vertically movable relative to the frame and formwork . - a formwork designed to receive a material to be hardened, the formwork comprising a bottom extending in a first direction and in a second direction perpendicular to the first direction, and a side wall extending in a direction perpendicular to the bottom ; - a frame mounted for translational movement along a translation axis (A) relative to the formwork , the translation axis (A) extending in a substantially horizontal direction intersecting the first direction ; - a ruler arranged to partially cover the material to be hardened disposed in the formwork in a vertical direction and extending from one edge of the formwork to the other in the first direction, the ruler being mounted so as to be movable relative to the formwork along the axis of translation (A); - means for moving the ruler configured to move the ruler from one end to another end of the formwork along the translation axis (A) and in a direction of movement; - a vertical oscillation generator attached to the ruler and configured to apply at least one vertical reciprocating movement to the ruler and compress the overthickness of the material to be hardened protruding from the side wall , the vertical oscillation generator performing several vertical reciprocating movements during the movement of the ruler from one end to the other of the formwork along the axis of translation (A);
A lock , comprising: a shackle comprising a first leg including a first foot , and a second leg including a second foot , wherein one of the first and second feet is a straight foot and the other of the first and second feet is an angled foot; and a crossbar configured to receive the first foot and the second foot , the crossbar including a locking assembly comprising: a lock cylinder including a spindle which is rotatable upon insertion of a proper key ; a cam coupled to the spindle ; a first bolt engaged with the cam , wherein the first bolt is configured to engage the first foot in response to a first rotational position of the cam and to disengage from the first foot in response to a second rotational position of the cam ; and characterized in that a second bolt is provided which is engaged with the cam , wherein the second bolt is configured to engage the second foot in response to the first rotational position of the cam and to disengage from the second foot in response to the second rotational position of the cam ; wherein, with the bolts engaged with the feet , the shackle is secured to the crossbar ; and wherein, with the bolts disengaged from the feet , the shackle is removable from the crossbar . a shackle comprising a first leg including a first foot , and a second leg including a second foot , wherein one of the first and second feet is a straight foot and the other of the first and second feet is an angled foot; and a crossbar configured to receive the first foot and the second foot , the crossbar including a locking assembly comprising: a lock cylinder including a spindle which is rotatable upon insertion of a proper key ; a cam coupled to the spindle ; a first bolt engaged with the cam , wherein the first bolt is configured to engage the first foot in response to a first rotational position of the cam and to disengage from the first foot in response to a second rotational position of the cam ; and characterized in that a second bolt is provided which is engaged with the cam , wherein the second bolt is configured to engage the second foot in response to the first rotational position of the cam and to disengage from the second foot in response to the second rotational position of the cam ; a lock cylinder including a spindle which is rotatable upon insertion of a proper key ; a cam coupled to the spindle ; a first bolt engaged with the cam , wherein the first bolt is configured to engage the first foot in response to a first rotational position of the cam and to disengage from the first foot in response to a second rotational position of the cam ; and characterized in that a second bolt is provided which is engaged with the cam , wherein the second bolt is configured to engage the second foot in response to the first rotational position of the cam and to disengage from the second foot in response to the second rotational position of the cam ; wherein, with the bolts engaged with the feet , the shackle is secured to the crossbar ; and wherein, with the bolts disengaged from the feet , the shackle is removable from the crossbar .
A signal processing device configured to a displaying process in a display unit on a basis of parameters being predetermined in an image capture device provided with an anamorphic lens, wherein the signal processing device is configured to display an icon indicating an in-focus state on the display unit as the displaying process, wherein the parameters are an aperture, F, value in a direction corresponding to a vertical direction of the anamorphic lens and an F value in a direction corresponding to a horizontal direction of the anamorphic lens, and wherein the signal processing device is configured to determine a mode of displaying the icon on a basis of a result of a comparison between an amount of focus deviation and an average of the F value in the direction corresponding to the vertical direction and the F value in the direction corresponding to the horizontal direction multiplied by a parameter d, the average being either a geometric average, an arithmetic average or a weighted average, the parameter d being a constant for determining an allowable focus width, and the amount of focus deviation being the difference between a current focus position and an in-focus position of the anamorphic lens determined by an autofocus. wherein the signal processing device is configured to display an icon indicating an in-focus state on the display unit as the displaying process, wherein the parameters are an aperture, F, value in a direction corresponding to a vertical direction of the anamorphic lens and an F value in a direction corresponding to a horizontal direction of the anamorphic lens, and wherein the signal processing device is configured to determine a mode of displaying the icon on a basis of a result of a comparison between an amount of focus deviation and an average of the F value in the direction corresponding to the vertical direction and the F value in the direction corresponding to the horizontal direction multiplied by a parameter d, the average being either a geometric average, an arithmetic average or a weighted average, the parameter d being a constant for determining an allowable focus width, and the amount of focus deviation being the difference between a current focus position and an in-focus position of the anamorphic lens determined by an autofocus.
A method for preparing a biological sample, comprising the steps of: providing a platform including at least one reactor vessel having one or more hydrophilic surfaces configured for containment of the biological sample, wherein the hydrophilic surfaces have a non-zero, total surface area less than 1 mm 2 ; wherein the platform comprises a glass chip comprising a substrate containing the at least one reactor vessel, a spacer containing an aperture positioned on the substrate , and a cover positioned on the spacer , wherein the aperture is dimensioned to surround the at least one reactor vessel when the spacer is positioned on the substrate ; transferring a first volume of the biological sample to a single reactor vessel, wherein the first volume is a non-zero amount less than 100 nL; processing the biological sample in the single reactor vessel to yield a processed sample, collecting a second volume of the processed sample; and analyzing the collected second volume of processed sample, wherein the analyzing step is configured to identify at least 1,000 unique species within the processed sample, and wherein the analyzing step comprises mass spectrometry or flow cytometry. providing a platform including at least one reactor vessel having one or more hydrophilic surfaces configured for containment of the biological sample, wherein the hydrophilic surfaces have a non-zero, total surface area less than 1 mm 2 ; wherein the platform comprises a glass chip comprising a substrate containing the at least one reactor vessel, a spacer containing an aperture positioned on the substrate , and a cover positioned on the spacer , wherein the aperture is dimensioned to surround the at least one reactor vessel when the spacer is positioned on the substrate ; transferring a first volume of the biological sample to a single reactor vessel, wherein the first volume is a non-zero amount less than 100 nL; processing the biological sample in the single reactor vessel to yield a processed sample, collecting a second volume of the processed sample; and analyzing the collected second volume of processed sample, wherein the analyzing step is configured to identify at least 1,000 unique species within the processed sample, and wherein the analyzing step comprises mass spectrometry or flow cytometry.
A method of laundering clothes, wherein an ancillary laundry composition comprising: a. Hydrolysed protein b. Free perfume c. 0 to 0.85 wt. % anionic and/or cationic surfactant is added in the wash or rinse stage, wherein the composition is liquid. a. Hydrolysed protein b. Free perfume c. 0 to 0.85 wt. % anionic and/or cationic surfactant
A communication method of a 3GPP Machine Type Communication, MTC, device, comprising: receiving a downlink control information, DCI, scheduling a repeated Semi-Persistent Scheduling, SPS, transmission of a same uplink data on a plurality of uplink subframes, during repeatedly transmitting the same uplink data via an uplink data channel based on the SPS, monitoring a downlink control channel indicating a release of the SPS; if the downlink control channel indicating the release of the SPS is detected, determining a first time point to stop the repeated transmission of the same uplink data via the uplink data channel and a second time point to transmit a Hybrid Automatic Repeat request, HARQ, acknowledge, ACK for the downlink control channel transmission indicating the SPS release; stopping the repeated transmission of the same uplink data via the uplink data channel at the determined first time point; and transmitting the HARQ ACK at the determined second time point, wherein the first time point is the same as the second time point, charactensed in that when the plurality of uplink subframes are scheduled through the same DCI, the foremost uplink subframe among the plurality of uplink subframes is assigned an HARQ process number that is indicated through the DCI, and wherein the remaining uplink subframes are assigned HARQ process numbers being generated based on the HARQ process number by adding successively a pre-defined value to the HARQ process number of the foremost uplink subframe. receiving a downlink control information, DCI, scheduling a repeated Semi-Persistent Scheduling, SPS, transmission of a same uplink data on a plurality of uplink subframes, during repeatedly transmitting the same uplink data via an uplink data channel based on the SPS, monitoring a downlink control channel indicating a release of the SPS; if the downlink control channel indicating the release of the SPS is detected, determining a first time point to stop the repeated transmission of the same uplink data via the uplink data channel and a second time point to transmit a Hybrid Automatic Repeat request, HARQ, acknowledge, ACK for the downlink control channel transmission indicating the SPS release; stopping the repeated transmission of the same uplink data via the uplink data channel at the determined first time point; and transmitting the HARQ ACK at the determined second time point, wherein the first time point is the same as the second time point, charactensed in that when the plurality of uplink subframes are scheduled through the same DCI, the foremost uplink subframe among the plurality of uplink subframes is assigned an HARQ process number that is indicated through the DCI, and wherein the remaining uplink subframes are assigned HARQ process numbers being generated based on the HARQ process number by adding successively a pre-defined value to the HARQ process number of the foremost uplink subframe.
Method of rectifying an image representing the surface of a tyre, comprising the following steps: • one detects, in the image, a circumferential marking present on the tyre, • one determines, on the basis of this marking and for each line of the image, a position reference on the tyre, • one determines, for each line of the image, the difference between the reference position on the current line and the minimum value of the reference positions for all of the lines of the image, and • the pixels of each of the lines are radially offset by the value of this difference. • one detects, in the image, a circumferential marking present on the tyre, • one determines, on the basis of this marking and for each line of the image, a position reference on the tyre, • one determines, for each line of the image, the difference between the reference position on the current line and the minimum value of the reference positions for all of the lines of the image, and • the pixels of each of the lines are radially offset by the value of this difference.
A method of diagnosing a prostate condition in a subject, comprising: determining, in a sample obtained from a subject comprising prostatic fluid, expressed prostatic secretion or seminal fluid, levels of a combination of a plurality of constituents, wherein the combination of constituents is selected from the group consisting of Ca/Fe, Mg/AI, Ca/Cu, Mg/Cu, Ca/Mn, Ca/AI, Ca/Ba, Zn/Mn, Ca/P, Ca/Si, Ca/Sr, (Ca/Cu)*(Mg/Cu), (Ca/Cu)*(Zn/Cu), (Mg/Cu)*(Zn/Cu), (Ca*Mg*Zn)/(Al*Bi*Cu), (Ca*Mg*Zn)/(Mn*Bi*Se), (Zn*Ca*Mg*Cd)/(Si*Br*Al*Ba), (Zn*Rb)/10, (Ca n *Cd n *Co n *Hg n *K n *Mg n *Na n *P n *Rb n *S n *Sc n *Se n *Zn n )/(Ag n *Al n *Au n *B n *Ba n *Bi n *Br n *Ce n *Cr n * Cs n *Cu n *Dy n *Er n *Fe n *Gd n *Ho n *La n *Li n *Mn n *Nd n *Ni n *Pb n *Pr n *Sb n *Si n *Sm n *Sr n *Th n *Tl n *U n *Y n *Zr n ), (Ca n *Cd n *Co n *Hg n *K n *Mg n *Na n *P n *Rb n *S n *Se n *Zn n )/(Ag n *Al n *Ba n *Bi n *Br n *Ce n *Cr n *Cs n *Cu n *Li n * Mn n *Ni n *Pb n *Sb n *Si n *Sr n ), (Ca n *K n *Mg n *Rb n *S n *Zn n )/6, (Ca n *K n *Mg n *Zn n )/4 or (Ca n +K n +Mg n +Zn n )-4, wherein n indicates a normalized level; and comparing the levels of the combination of the plurality of constituents in the sample with control levels of the same combination of plurality of constituents, in which a difference between the combinations is indicative of the prostate condition.
A refrigerated beauty box comprising: an insulating plate including an opening equipped with a Peltier module having a cold face leading towards the inside of the box and a hot face leading towards the outside of the box; a cold radiator in contact with the cold face; a hot radiator in contact with the hot face; a hot fan associated with the hot radiator and with an outlet manifold oversized with respect to a nominal flow rate of the fan; and a normal operating temperature sensor associated with a control unit for controlling a power supply of the Peltier module, the refrigerated beauty box including at least one safety temperature sensor associated with the control unit which is configured to cut off the power supply of the Peltier module when said at least one safety temperature sensor reaches a critical temperature.
Drilling instrument for machining tubes in tube sheets of heat exchangers in a radioactive environment, having a transport device having clamping elements , characterized in that a drilling device having clamping fingers is held by the transport device , in that the clamping elements and the clamping fingers are arranged on a common first side of the drilling device and of the transport device in that the transport device and the drilling device are connected to a support device , in that the support device has a support plate on which a resting plate of the drilling device rests, in that the support plate is connected to the resting plate by way of at least one movable connecting element , in that the resting plate is connected to the support plate in a play-free manner in a first position of the connecting element , in that the resting plate exhibits predefinabre play with regard to the support plate in a second position of the connecting element .