mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a heating module for an electric heater, comprising the steps of: - creating a cast iron heat sink body, - installing in the body an electrically insulated resistive heating element so that the heat supplied by said resistive heating element is transmitted to said body, - forming the body by joining together the two cast iron plates , said plates being joined so as to sandwich the electrically insulated resistive heating element , characterised in that it further comprises the steps of: - moulding two cast iron plates , - joining together the two cast iron plates so as to compress the electrically insulated resistive heating element , - winding a resistive wire or tape along the length of a first insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - winding a resistive wire or tape along the entire length of a second insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - arrange the two sheets side by side, in the same plane, and in mirror image, so that the respective ends of the wires or tapes are adjacent or nearly adjacent, - soldering a flat metal connector to one of the pairs of ends of the wires or tapes located at the side edges on the same side of the sheets , to establish an electrical connection between said sheets, - linking to respective connectors the respective other ends of the wires or tapes located at the side edges on the other side of the sheets . - creating a cast iron heat sink body, - installing in the body an electrically insulated resistive heating element so that the heat supplied by said resistive heating element is transmitted to said body, - forming the body by joining together the two cast iron plates , said plates being joined so as to sandwich the electrically insulated resistive heating element , - moulding two cast iron plates , - joining together the two cast iron plates so as to compress the electrically insulated resistive heating element , - winding a resistive wire or tape along the length of a first insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - winding a resistive wire or tape along the entire length of a second insulating support sheet starting from one side edge of said sheet to the opposite side edge of said sheet, - arrange the two sheets side by side, in the same plane, and in mirror image, so that the respective ends of the wires or tapes are adjacent or nearly adjacent, - soldering a flat metal connector to one of the pairs of ends of the wires or tapes located at the side edges on the same side of the sheets , to establish an electrical connection between said sheets, - linking to respective connectors the respective other ends of the wires or tapes located at the side edges on the other side of the sheets .
A headset assembly system for a bicycle comprising a handlebar stem , radially fastenable by tightening to a fork tube which is rotatable by means of headset bearings with respect to a head tube wherein the headset bearings are fastened, a retaining flange , radially fastenable by tightening to the fork tube , a thrust ring , axially movable along the fork tube , such that the retaining flange and the thrust ring are configured to contact each other by means of at least one ramp which relates a rotation with a movement relative to each other, characterised in that the thrust ring is arranged fitted inside of the stem in contact with a fitting stop such that, when the thrust ring is rotated around the fork tube with the retaining flange fastened to the fork tube , the thrust ring is configured to move with respect to the retaining flange to push the stem against the headset bearings . a handlebar stem , radially fastenable by tightening to a fork tube which is rotatable by means of headset bearings with respect to a head tube wherein the headset bearings are fastened, a retaining flange , radially fastenable by tightening to the fork tube , a thrust ring , axially movable along the fork tube , such that the retaining flange and the thrust ring are configured to contact each other by means of at least one ramp which relates a rotation with a movement relative to each other, characterised in that the thrust ring is arranged fitted inside of the stem in contact with a fitting stop such that, when the thrust ring is rotated around the fork tube with the retaining flange fastened to the fork tube , the thrust ring is configured to move with respect to the retaining flange to push the stem against the headset bearings .
Circuitry comprising: a first resonant radio frequency conductive path comprising a first transmission line between a first node and a third node ; a second resonant radio frequency conductive path comprising a second transmission line between a second node and the third node ; an internode radio frequency conductive path comprising a third transmission line between the first node and the second node ; a shunt resonant element coupled to the third node and shared by the first resonant radio frequency conductive path and the second resonant radio frequency conductive path ; and a phase shift element for introducing a relative phase shift to the first resonant radio frequency conductive path relative to the second resonant radio frequency conductive path ; wherein the first transmission line and the second transmission line are substantially identical branches from the third transmission line except that the first transmission line comprises the phase shift element . a first resonant radio frequency conductive path comprising a first transmission line between a first node and a third node ; a second resonant radio frequency conductive path comprising a second transmission line between a second node and the third node ; an internode radio frequency conductive path comprising a third transmission line between the first node and the second node ; a shunt resonant element coupled to the third node and shared by the first resonant radio frequency conductive path and the second resonant radio frequency conductive path ; and a phase shift element for introducing a relative phase shift to the first resonant radio frequency conductive path relative to the second resonant radio frequency conductive path ; wherein the first transmission line and the second transmission line are substantially identical branches from the third transmission line except that the first transmission line comprises the phase shift element .
Charging device for charging electrically operated devices having a primary coil which is suitable and intended to generate a magnetic field in order to inductively transmit electrical energy to a secondary coil which is a component of the electrically operated device , wherein the charging device has a detection device for detecting objects, wherein the detection device comprises at least one signal generator which supplies alternating current voltage to an electrical circuit , having at least one coil and/or at least one capacitor , and a sensor device which detects at least one electrical variable which is characteristic for this electrical circuit operated by the alternating current voltage, wherein the variable characteristic for the electrical circuit is a phase information and this characteristic variable is obtained on the basis of scattering parameter measurements of the electrical circuit by the sensor device , wherein the sensor device detects the characteristic variable of the electrical circuit by applying alternating current voltage to the same and more precise by detecting a reaction of the electrical circuit being applied with the alternating current voltage, to the presence of a foreign object, wherein the primary coil is operated with a primary voltage of the frequency (f1) and the AC (alternating current) voltage source emits an alternating current voltage of the frequency (f2), wherein one of these two frequencies is at least twice as great as the other one of the two frequencies (f1, f2), and wherein the frequency (f2) of the AC voltage source is adjustable in a predetermined frequency range, characterised in that a detected analog signal is scannable by means of an A-D converter which thus enables not only receiving amplitude values but also receiving phase information of the analog signal, which thus enables regenerating wave frequencies by means of algorithm and analyzing scattering parameter (S11, S12, S21, S22) as real complex values, and wherein after generating this analog signal it is introduced into a directional coupler after a signal amplification and/or signal processing, wherein additionally a signal from the electrical circuit is introduced into the directional coupler , and further wherein both signals are introduced from the directional coupler into a signal processing device , the charging arrangement comprising a gain and phase detector , as a special variation of the signal processing device , which is implemented as a form of the signal processing device , and thus the gain and phase detector delivers DC-signals, so that a time-discrete signal sampling is able to be omitted, since the gain and phase detector - although as DC-signal - delivers an amplitude information and a phase information, which in turn enables a complex depiction, wherein a decoupling of predetermined wave frequencies is depicted and not all of the wave frequencies being available from the network, and further wherein the gain and phase detector performs a signal preparation for the detection in an ADC of the microcontroller .
A feed system for supplying a feed material to a pyrolysis reactor , wherein the feed system comprises a feed conduit having an inlet for receiving the feed material , and an outlet for discharging the feed material into the reactor , the feed conduit having a first section comprising the inlet and a second section comprising the outlet , the first section accommodating an auger , and the second section comprising at least one plug forming zone, wherein the auger is configured to convey the feed material from the inlet towards the outlet and to discharge the feed material into the second section , and wherein the plug forming zone is sized and configured such that the feed material so discharged by the auger accumulates into a plug of feed material that provides a gas barrier between the outlet and the inlet of the feed conduit , wherein the feed system comprises a temperature regulator for controlling the temperature of at least a portion of the second section of the feed conduit , and wherein the temperature regulator comprises a cooling jacket ; wherein the cooling jacket is also operable as a heating jacket, and wherein the temperature regulator is configured to operate in: (i) a first cooling mode in which the temperature regulator acts to cool the feed conduit , and (ii) a second heating mode in which the temperature regulator acts to heat the feed conduit .
A lithium borosilicate composition, consisting essentially of a system of lithium oxide in combination with silicon oxide and boron oxide, wherein said lithium borosilicate composition comprises between 81-83 atomic % lithium based on the combined atomic percentages of lithium, boron and silicon, and wherein said lithium borosilicate composition is a glass.
A system comprising a hub device and a brake disc for vehicles, in which the brake disc is provided at its inner radial peripheral surface with at least two grooves directed radially outwards, the hub device is provided with at least two protruding elements adapted to cooperation with said grooves in the brake disc , and the system further comprises at least two intermediate elements for transmission of torque and power between the hub device and the brake disc , wherein said intermediate elements are adapted to partly protruding into said grooves in the brake disc in such a way that an intermediate element has its one end part protruding into a groove and its other end part into an adjacent groove , and the end parts of the intermediate element are also united by a base portion which is adapted to resting against the inner axial side surface of the brake disc during the fitting of the brake disc on the hub device characterised in that the intermediate elements comprise two or more layers of material adapted to being held together at least until the brake disc has been slid onto the hub device , and in that the layers of material of the intermediate elements are adapted to being held together by holding-together means which are adapted to being broken off when the brake disc is removed from the hub device .
A method of transforming an image of a sample obtained with a holographic microscope to an image that resembles a microscopy image obtained with a microscope having a different microscopy image modality comprising: obtaining a single holographic image , that is a hologram, of the sample with the holographic microscope ; inputting the holographic image of the sample to a trained deep neural network that is executed by a computing device , the deep neural network is trained using a plurality of holographic training images obtained with the holographic microscope as well as their corresponding ground-truth images obtained with the microscope having the different image modality; and outputting an image of the sample at a particular depth from the trained deep neural network , wherein the output image resembles a microscopy image of the sample obtained at the same particular depth with a microscope having the different microscopy image modality. obtaining a single holographic image , that is a hologram, of the sample with the holographic microscope ; inputting the holographic image of the sample to a trained deep neural network that is executed by a computing device , the deep neural network is trained using a plurality of holographic training images obtained with the holographic microscope as well as their corresponding ground-truth images obtained with the microscope having the different image modality; and outputting an image of the sample at a particular depth from the trained deep neural network , wherein the output image resembles a microscopy image of the sample obtained at the same particular depth with a microscope having the different microscopy image modality.
A crown molding assembly including a non-linear molding section having one or more cable paths that inherently protect cables within from unsafe bends, comprising first and second crown molding sections each having a front section including a decorative face having an outer surface and an inner surface and a rear section including an attachment portion, said first and second crown molding sections connected on an end at a non-linear angle, and at least one cable path located in the crown molding sections between the inner surface of the decorative face and the rear section, characterised by said at least one cable path having a curved path protection structure to receive and direct cables placed in the curved path protection structure between the sections of the crown molding without any bends sharper than a defined minimum allowable bend radius for the cables. first and second crown molding sections each having a front section including a decorative face having an outer surface and an inner surface and a rear section including an attachment portion, said first and second crown molding sections connected on an end at a non-linear angle, and at least one cable path located in the crown molding sections between the inner surface of the decorative face and the rear section, characterised by said at least one cable path having a curved path protection structure to receive and direct cables placed in the curved path protection structure between the sections of the crown molding without any bends sharper than a defined minimum allowable bend radius for the cables.
A method for verifying a security device comprising an image including a signature, comprising the following steps: - acquiring the image according to a first optical spectrum in order to obtain a first representation , - extracting the signature, and - verifying the signature, characterized in that : - the signature is colorimetric and comprises a particular orientation of a color chart, or - the signature is a frequency signature, the image comprising at least one reference spatial period. - acquiring the image according to a first optical spectrum in order to obtain a first representation , - extracting the signature, and - verifying the signature, - the signature is colorimetric and comprises a particular orientation of a color chart, or - the signature is a frequency signature, the image comprising at least one reference spatial period.
A computer implemented method , comprising: receiving a request to post content to an event gallery associated with an event, the request including: geo-location data for a device sending the content, and identification data identifying at least one of the device or a user of the device; performing a first authorization operation including determining that the geo-location data corresponds to a geo-location fence associated with the event; performing a second authorization operation including using the identification data to verify an attribute of the user; and based on the first and second authorization operations, posting the content to an event gallery, characterized in that the verifying of the attribute includes identifying at least one historic communications contribution by the user to a further event gallery associated with a further event. receiving a request to post content to an event gallery associated with an event, the request including: geo-location data for a device sending the content, and identification data identifying at least one of the device or a user of the device; geo-location data for a device sending the content, and identification data identifying at least one of the device or a user of the device; performing a first authorization operation including determining that the geo-location data corresponds to a geo-location fence associated with the event; performing a second authorization operation including using the identification data to verify an attribute of the user; and based on the first and second authorization operations, posting the content to an event gallery, characterized in that the verifying of the attribute includes identifying at least one historic communications contribution by the user to a further event gallery associated with a further event.
A method comprising: detecting , by a software development kit, SDK, , an event and generating, by the SDK, event data in response to user interactions with a mobile application on a mobile device , wherein the event data includes an event type; collecting , by the SDK, event data for each detected event; bundling , by the SDK, the event data, the method being characterized in that it further comprises : determining , by the SDK, that a connection to a first data processing system is unavailable; preparing , by the SDK, the bundled event data for transmission to a second data processing system by removing identifiers from the bundled event data; and securely transmitting , by the SDK, the thus prepared bundled event data to the second data processing system . detecting , by a software development kit, SDK, , an event and generating, by the SDK, event data in response to user interactions with a mobile application on a mobile device , wherein the event data includes an event type; collecting , by the SDK, event data for each detected event; bundling , by the SDK, the event data, the method being characterized in that it further comprises : determining , by the SDK, that a connection to a first data processing system is unavailable; preparing , by the SDK, the bundled event data for transmission to a second data processing system by removing identifiers from the bundled event data; and securely transmitting , by the SDK, the thus prepared bundled event data to the second data processing system . determining , by the SDK, that a connection to a first data processing system is unavailable; preparing , by the SDK, the bundled event data for transmission to a second data processing system by removing identifiers from the bundled event data; and securely transmitting , by the SDK, the thus prepared bundled event data to the second data processing system .
Turbomachine rotor blade comprising a plurality of blade sections stacked along a Z axis between a blade root and a blade tip defining between them the height of the blade, each blade section comprising a leading edge , a trailing edge , a pressure face and a suction face , a chord defined by the length of the straight portion connecting the leading edge and the trailing edge in the section and a maximum thickness defined by the maximum distance between the upper surface and the lower surface , characterized in that : - the ratio between the maximum thickness and the chord at 30% blade height is between 20% and 42% of the ratio between the maximum thickness and the chord at the blade root, - the ratio between the maximum thickness and the chord at 70% of the blade height is between 10% and 30% of the ratio between the maximum thickness and the chord at the blade root, - the ratio between the maximum thickness and the chord at 90% of the blade height is between 10% and 30% of the ratio between the maximum thickness and the chord at the blade root, - the ratio between the maximum thickness and the chord at the blade tip is between 3% and 21% of the ratio between the maximum thickness and the chord at the blade root. - the ratio between the maximum thickness and the chord at 30% blade height is between 20% and 42% of the ratio between the maximum thickness and the chord at the blade root, - the ratio between the maximum thickness and the chord at 70% of the blade height is between 10% and 30% of the ratio between the maximum thickness and the chord at the blade root, - the ratio between the maximum thickness and the chord at 90% of the blade height is between 10% and 30% of the ratio between the maximum thickness and the chord at the blade root, - the ratio between the maximum thickness and the chord at the blade tip is between 3% and 21% of the ratio between the maximum thickness and the chord at the blade root.