mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless power supply system, comprising: (A) a thermoelectric generation device configured to be arranged in an atmosphere within a space of a room as a receiver side, the thermoelectric generation device is configured to generate thermoelectricity in response to temperature change of the atmosphere of the room; and the system is characterized in that it also comprises: (B) a temperature control device configured to be arranged away from the thermoelectric generation device as a transmission side, the temperature control device is configured to cause a periodical change of the temperature to the atmosphere of the room, wherein the temperature control device is configured to set a pattern of an amplitude and a cycle of the periodical change. (A) a thermoelectric generation device configured to be arranged in an atmosphere within a space of a room as a receiver side, the thermoelectric generation device is configured to generate thermoelectricity in response to temperature change of the atmosphere of the room; and the system is characterized in that it also comprises: (B) a temperature control device configured to be arranged away from the thermoelectric generation device as a transmission side, the temperature control device is configured to cause a periodical change of the temperature to the atmosphere of the room, wherein the temperature control device is configured to set a pattern of an amplitude and a cycle of the periodical change.
A windscreen wiper device comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade is of the flat blade type and includes at least one longitudinal groove, in which groove a longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for an oscillating arm , wherein said oscillating arm is pivotally connected to said connecting device about a pivot axis near a free end thereof, with the interposition of a joint part , wherein said joint part comprises at least one resilient tongue engaging in a correspondingly shaped hole provided in said oscillating arm , and wherein said resilient tongue is rotatable along an hinge axis between an outward position retaining the wiper blade onto the oscillating arm and an inward position releasing the wiper blade from the oscillating arm , wherein said oscillating arm has an at least substantially U-shaped cross-section at the location of its connection to said joint part , wherein at least one leg of said U-shaped cross-section of said oscillating arm comprises an inwardly extending protrusion cooperating with a bottom surface of a side wall of said joint part near an extremity of said joint part facing away from said free end of said oscillating arm , wherein said joint part and said oscillating arm are assembled only by a linear movement of said joint part towards said oscillating arm in a longitudinal direction parallel to a longitudinal axis of said oscillating arm until said resilient tongue engages inside said hole provided in said oscillating arm , wherein said joint part is detachably attached to said connecting device by pivotally engaging projections of said connecting device , at the location of said pivot axis, in recesses provided in said joint part , characterised in that said protrusion cooperates with an elevated part of said bottom surface of said side wall of said joint part .
A surgical robotic system comprising: a robotic manipulator; a surgical tool coupled to the robotic manipulator and configured to hold a screw and to rotate the screw about a rotational axis (R), the screw being self-tapping and having a known thread geometry; a navigation system configured to track a position of a target site; and a robotic controller coupled to the robotic manipulator and the navigation system , the robotic controller comprising memory for storing the known thread geometry and wherein the robotic controller is configured to: control movement of the robotic manipulator to maintain the rotational axis (R) of the surgical tool along a planned trajectory with respect to the target site based on the tracked position of the target site, and autonomously control the surgical tool to rotate the screw at a rotational rate about the rotational axis (R) and to linearly advance the screw at an advancement rate along the planned trajectory, wherein the rotational rate and the advancement rate are proportional to the known thread geometry stored in the memory. a robotic manipulator; a surgical tool coupled to the robotic manipulator and configured to hold a screw and to rotate the screw about a rotational axis (R), the screw being self-tapping and having a known thread geometry; a navigation system configured to track a position of a target site; and a robotic controller coupled to the robotic manipulator and the navigation system , the robotic controller comprising memory for storing the known thread geometry and wherein the robotic controller is configured to: control movement of the robotic manipulator to maintain the rotational axis (R) of the surgical tool along a planned trajectory with respect to the target site based on the tracked position of the target site, and autonomously control the surgical tool to rotate the screw at a rotational rate about the rotational axis (R) and to linearly advance the screw at an advancement rate along the planned trajectory, wherein the rotational rate and the advancement rate are proportional to the known thread geometry stored in the memory. control movement of the robotic manipulator to maintain the rotational axis (R) of the surgical tool along a planned trajectory with respect to the target site based on the tracked position of the target site, and autonomously control the surgical tool to rotate the screw at a rotational rate about the rotational axis (R) and to linearly advance the screw at an advancement rate along the planned trajectory, wherein the rotational rate and the advancement rate are proportional to the known thread geometry stored in the memory.
A sample storage and extraction device , comprising: a substrate frame having a substrate region configured to receive a sample substrate having a sample region; a substrate cover operatively coupled to the substrate frame; a compression assembly configured to provide an isolation zone; and a fluidic channel configured to flow an elution fluid to the isolation zone, the device being characterised in that the isolation zone is provided in a portion of the sample substate and the compression assembly includes a compression member disposed on a flexure said flexure being configured to be disposed around the sample region of the sample substrate, wherein the flexure is further configured to distribute an applied force to form the isolation zone. a substrate frame having a substrate region configured to receive a sample substrate having a sample region; a substrate cover operatively coupled to the substrate frame; a compression assembly configured to provide an isolation zone; and a fluidic channel configured to flow an elution fluid to the isolation zone, the device being characterised in that the isolation zone is provided in a portion of the sample substate and the compression assembly includes a compression member disposed on a flexure said flexure being configured to be disposed around the sample region of the sample substrate, wherein the flexure is further configured to distribute an applied force to form the isolation zone.
An electronic cigarette having a printed battery , wherein electronic components comprised by the electronic cigarette are to be supplied with electrical energy by the printed battery , with the printed battery enveloping a functional unit of the electronic cigarette, wherein the functional unit consists of at least one component from the following list of components: vacuum sensor, liquid reservoir, and heating element, and wherein the functional unit with its electrical terminals directly contacts the printed battery.
An image processing device , comprising: an intra prediction unit configured to perform matrix intra prediction, MIP, within the framework of the Versatile Video Coding (VVC) video codec standardization using a shift amount sW set to a fixed value, wherein the fixed value is a value that is fixed regardless of the mode number of the matrix intra prediction, to generate a predicted image of a current prediction block, when the matrix intra prediction which is intra prediction using a matrix operation is performed on the current prediction block to be encoded; and an encoding unit configured to encode the current prediction block using the predicted image generated by the intra prediction unit. an intra prediction unit configured to perform matrix intra prediction, MIP, within the framework of the Versatile Video Coding (VVC) video codec standardization using a shift amount sW set to a fixed value, wherein the fixed value is a value that is fixed regardless of the mode number of the matrix intra prediction, to generate a predicted image of a current prediction block, when the matrix intra prediction which is intra prediction using a matrix operation is performed on the current prediction block to be encoded; and an encoding unit configured to encode the current prediction block using the predicted image generated by the intra prediction unit.
A method for producing a cationic lipid, wherein a cationic lipid represented by formula is mixed with a tetraalkylammonium salt having X - in an organic solvent, and after separating a tetraalkylammonium iodide deposited by filtration to obtain a filtrate, the filtrate is concentrated to deposit at least a tetraalkylammonium iodide, thereby obtaining a cationic lipid represented by formula : wherein, in the formula , R 1 , R 2 and R 3 each represents a hydrocarbon group having from 1 to 6 carbon atoms, and R 4 and R 5 each represents an acyl having from 10 to 22 carbon atoms or a hydrocarbon group having from 10 to 22 carbon atoms; wherein, in the formula , R 1 , R 2 and R 3 each represents a hydrocarbon group having from 1 to 6 carbon atoms, R 4 and R 5 each represents an acyl having from 10 to 22 carbon atoms or a hydrocarbon group having from 10 to 22 carbon atoms, and X - represents a chloride ion, a bromide ion, a fluoride ion, an acetate ion, a methanesulfonate ion or a p-toluenesulfonate ion.
A delivery and detachment system for an implantable intravascular device , the system comprising: an inner support tube having a passageway extending in an axial direction from a proximal end to an opposite distal end; and a securement wire extending through the passageway of the inner support tube; an outer sleeve surrounding an outer surface of the inner support tube, wherein the outer sleeve is made of a reflowable material; characterized in that the inner support tube has defined therein at least one side port opening intersecting with the passageway and the outer surface of the inner support tube; and the reflowable material of the outer sleeve being seepable through the at least one side port opening defined in the inner support tube and into the passageway of the inner support tube forming an associated point of direct physical contact with the securement wire; and wherein each associated point of direct physical contact is configured to impose on the securement wire a controlled friction force established within an intentional friction zone located anywhere between the distal end of the inner support tube and a midway point between the respective proximal and distal ends of the inner support tube. an inner support tube having a passageway extending in an axial direction from a proximal end to an opposite distal end; and a securement wire extending through the passageway of the inner support tube; an outer sleeve surrounding an outer surface of the inner support tube, wherein the outer sleeve is made of a reflowable material; characterized in that the inner support tube has defined therein at least one side port opening intersecting with the passageway and the outer surface of the inner support tube; and the reflowable material of the outer sleeve being seepable through the at least one side port opening defined in the inner support tube and into the passageway of the inner support tube forming an associated point of direct physical contact with the securement wire; and wherein each associated point of direct physical contact is configured to impose on the securement wire a controlled friction force established within an intentional friction zone located anywhere between the distal end of the inner support tube and a midway point between the respective proximal and distal ends of the inner support tube. characterized in that the inner support tube has defined therein at least one side port opening intersecting with the passageway and the outer surface of the inner support tube; and the reflowable material of the outer sleeve being seepable through the at least one side port opening defined in the inner support tube and into the passageway of the inner support tube forming an associated point of direct physical contact with the securement wire; and wherein each associated point of direct physical contact is configured to impose on the securement wire a controlled friction force established within an intentional friction zone located anywhere between the distal end of the inner support tube and a midway point between the respective proximal and distal ends of the inner support tube.
Mobile floor-cleaning machine comprising a chassis , a rear-wheel apparatus arranged on the chassis , a steerable front-wheel apparatus and a steering-rod apparatus , which is operatively coupled to the front-wheel apparatus for torque communication therewith, the front-wheel apparatus being held on a support secured on the chassis , and a torque transmission apparatus for transmitting torque from the steering-rod apparatus to the front-wheel apparatus being arranged on the support , the steering-rod apparatus being operatively coupled to the torque transmission apparatus for torque communication therewith, characterised in that the support is an element that is separate from the chassis and connected to the chassis .
Floor covering with at least two planar-surface floor covering elements , which in each case comprise a usable surface and which can be laid on a sub-floor with a support surface opposite the usable surface , and with at least one connecting element , by means of which the two floor covering elements adjacent to one another are connected to one another, wherein each floor covering element , in the support surface , comprises at least one recess which, starting from a side surface of the floor covering element connecting the usable surface to the support surface extends away from the side surface , wherein the at least one recess in the floor covering element in each case comprises an anchoring region and a connecting region connecting the anchoring region with the side surface and wherein the anchoring region comprises an undercut surface extending laterally beyond the connecting region , in that in the two floor covering elements laid adjacent to one another, at least one recess of the first floor covering element with the connecting region is arranged in alignment with the connecting region of an associated recess of the second floor covering element , and that the at least one connecting element , starting from the respective support surface of the first and second floor covering elements , is arranged in the two recesses of the first and second floor covering elements arranged in alignment, wherein the connecting element in each case comprises an anchoring portion on two opposite end regions and the two anchoring portions are connected to one another by means of a connecting portion , and wherein each anchoring portion of the connecting element is form-fittingly secured on the respective undercut surface in the associated anchoring region of the recess of the first and second floor covering elements , characterized in that a pressure plate laterally projecting beyond the bottom side of the connecting element is arranged on an bottom side of the connecting element facing the support surface of the floor covering elements .
A connector assembly comprising: a connector part of a connector having a jack cavity ; and a cable manager part configured to be installed within the connector part of the connector , the cable manager part comprising: a main body defining an aperture for receiving a cable including a plurality of wires , the main body having a plurality of channels for receiving and retaining each of the wires ; and a separable lacing fixture removably attached to the main body and having a plurality of channels for receiving and retaining each of the wires ; characterized in that the separable lacing fixture is configured to be separated from the main body when the connector part is fully installed onto the main body ; wherein the separable lacing fixture is connected to the main body by one or more breakaway portions ; and wherein the connector part includes cutting edges configured to cut or break one or more breakaway portions when the connector part is fully installed onto the cable manager part . a connector part of a connector having a jack cavity ; and a cable manager part configured to be installed within the connector part of the connector , the cable manager part comprising: a main body defining an aperture for receiving a cable including a plurality of wires , the main body having a plurality of channels for receiving and retaining each of the wires ; and a separable lacing fixture removably attached to the main body and having a plurality of channels for receiving and retaining each of the wires ; characterized in that the separable lacing fixture is configured to be separated from the main body when the connector part is fully installed onto the main body ; wherein the separable lacing fixture is connected to the main body by one or more breakaway portions ; and wherein the connector part includes cutting edges configured to cut or break one or more breakaway portions when the connector part is fully installed onto the cable manager part . a main body defining an aperture for receiving a cable including a plurality of wires , the main body having a plurality of channels for receiving and retaining each of the wires ; and a separable lacing fixture removably attached to the main body and having a plurality of channels for receiving and retaining each of the wires ; characterized in that the separable lacing fixture is configured to be separated from the main body when the connector part is fully installed onto the main body ; wherein the separable lacing fixture is connected to the main body by one or more breakaway portions ; and wherein the connector part includes cutting edges configured to cut or break one or more breakaway portions when the connector part is fully installed onto the cable manager part .
A touch screen, comprising: infrared-emitting diodes , infrared-receiving diodes , a touch detection region, first-stage processing circuits , and a second-stage processing circuit , wherein at least two of the infrared-receiving diodes are arranged to simultaneously receive infrared light emitted from the same infrared-emitting diode of the infrared-emitting diodes , wherein the number of the first-stage processing circuits equals to the number of the at least two infrared-receiving diodes , and there is a one-to-one relationship between the first-stage processing circuits and the at least two infrared-receiving diodes, wherein the first-stage processing circuits are configured to simultaneously filter out interfering light signals from signals received by the at least two of the infrared-receiving diodes, and then output the filtered signals to the second-stage processing circuit for processing. infrared-emitting diodes , infrared-receiving diodes , a touch detection region, first-stage processing circuits , and a second-stage processing circuit , wherein at least two of the infrared-receiving diodes are arranged to simultaneously receive infrared light emitted from the same infrared-emitting diode of the infrared-emitting diodes , wherein the number of the first-stage processing circuits equals to the number of the at least two infrared-receiving diodes , and there is a one-to-one relationship between the first-stage processing circuits and the at least two infrared-receiving diodes, wherein the first-stage processing circuits are configured to simultaneously filter out interfering light signals from signals received by the at least two of the infrared-receiving diodes, and then output the filtered signals to the second-stage processing circuit for processing.
A dialysis system, comprising: a fluid cassette carrying a plurality of valves ; a valve actuation system , comprising: a drive unit comprising an actuator configured to engage and move the plurality of valves disposed within the fluid cassette to selectively open and close each valve of the plurality of valves, and a positioning frame disposed adjacent the fluid cassette and along which the drive unit can be moved in three dimensions to align the actuator with a selected valve of the plurality of valves; and a control unit configured to control movements of the valve actuation system. a fluid cassette carrying a plurality of valves ; a valve actuation system , comprising: a drive unit comprising an actuator configured to engage and move the plurality of valves disposed within the fluid cassette to selectively open and close each valve of the plurality of valves, and a positioning frame disposed adjacent the fluid cassette and along which the drive unit can be moved in three dimensions to align the actuator with a selected valve of the plurality of valves; and a drive unit comprising an actuator configured to engage and move the plurality of valves disposed within the fluid cassette to selectively open and close each valve of the plurality of valves, and a positioning frame disposed adjacent the fluid cassette and along which the drive unit can be moved in three dimensions to align the actuator with a selected valve of the plurality of valves; and a control unit configured to control movements of the valve actuation system.
A computer-implemented method of responding to a voice command received from a user, the method comprising: receiving a voice command from a user; processing the received voice command to formulate a response for the user; and providing the response to the user; wherein the response is selectively provided to the user in an audio format or in a visual format depending on one or more characteristics of the response. receiving a voice command from a user; processing the received voice command to formulate a response for the user; and providing the response to the user; wherein the response is selectively provided to the user in an audio format or in a visual format depending on one or more characteristics of the response.
A method for operating a vehicle electrical system that has an energy store with a sensor computing unit assigned to it, and an electronic load distributor , wherein at least one measurement value of the energy store is detected by means of the sensor computing unit, and a parameter of the energy store is calculated by taking into account this at least one measurement value, characterized in that in a first step a plausibility check of the at least one measurement value is carried out and that in a second step a plausibility check of the calculation is carried out, for which purpose the electronic load distributor is used.