mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: (a) a body assembly comprising: i. an energy component, wherein the energy component is operable at a plurality of energy settings, ii. a control module; and iii. a casing (b) a directional force sensor assembly, wherein the directional force sensor assembly is associated with the energy component, wherein the directional force sensor assembly is communicatively coupled to the control module, wherein the directional force sensor assembly comprises a piezoresistive element, and wherein the piezoresistive element is arranged on the casing; and (c) an end effector, wherein the end effector is detachably coupled to the energy component and the casing, and wherein the end effector comprises a finger operable to compress the piezoresistive element in response to a force applied to the end effector; wherein the directional force sensor assembly is operable to detect a force applied to the end effector relative to the body assembly, wherein the control module is configured to operate the energy component at a first energy setting in response to the output of the directional force sensor assembly detecting a first force. (a) a body assembly comprising: i. an energy component, wherein the energy component is operable at a plurality of energy settings, ii. a control module; and iii. a casing i. an energy component, wherein the energy component is operable at a plurality of energy settings, ii. a control module; and iii. a casing (b) a directional force sensor assembly, wherein the directional force sensor assembly is associated with the energy component, wherein the directional force sensor assembly is communicatively coupled to the control module, wherein the directional force sensor assembly comprises a piezoresistive element, and wherein the piezoresistive element is arranged on the casing; and (c) an end effector, wherein the end effector is detachably coupled to the energy component and the casing, and wherein the end effector comprises a finger operable to compress the piezoresistive element in response to a force applied to the end effector;
An apparatus for controlling a consumer electronic device (106, 108, 110), comprising: a transmitter; a user interface; a storage area; and a control module coupled to the transmitter, the user interface, and the storage area, wherein the control module is configured to access a plurality of records from the storage area based on a selection input by a user on the user interface, and to transmit control signals through the transmitter to at least one consumer electronic device (106, 108, 110) based upon the accessed records, wherein the plurality of records includes: at least one metadata record and at least one code record, the apparatus being further characterized in that the control module is configured to pause for a delay time after transmitting a control signal to the at least one consumer electronic device(106, 108, 110), wherein the delay time is provided from a metadata record in the plurality of records associated with the at least one consumer electronic device(106, 108, 110). a transmitter; a user interface; a storage area; and a control module coupled to the transmitter, the user interface, and the storage area, wherein the control module is configured to access a plurality of records from the storage area based on a selection input by a user on the user interface, and to transmit control signals through the transmitter to at least one consumer electronic device (106, 108, 110) based upon the accessed records, wherein the plurality of records includes: at least one metadata record and at least one code record, the apparatus being further characterized in that the control module is configured to pause for a delay time after transmitting a control signal to the at least one consumer electronic device(106, 108, 110), wherein the delay time is provided from a metadata record in the plurality of records associated with the at least one consumer electronic device(106, 108, 110). at least one metadata record and at least one code record, the apparatus being further characterized in that the control module is configured to pause for a delay time after transmitting a control signal to the at least one consumer electronic device(106, 108, 110), wherein the delay time is provided from a metadata record in the plurality of records associated with the at least one consumer electronic device(106, 108, 110).
A method of making an implantable medical device comprising: providing a plurality of components on a substrate; and applying a biocompatible multi-layer polymeric coating by vapour deposition to conform to and sealingly cover at least a first portion of the components and the substrate, the coating being applied in at least two pairs of layers (3, 4, 5, 6), wherein each pair has one layer formed by dissociation of a precursor and then simple deposition of that precursor, and the other layer is formed by at least one of plasma dissociation and excitation of the precursor to form a plasma- enhanced precursor, and then deposition of the plasma-enhanced precursor, wherein each layer differs in at least one diffusion barrier property from the other layer in the pair and adds to an overall barrier effect of the coating, and wherein an additional gas plasma treatment is performed, to improve the interface between two layers with respect to impurity diffusion. providing a plurality of components on a substrate; and applying a biocompatible multi-layer polymeric coating by vapour deposition to conform to and sealingly cover at least a first portion of the components and the substrate, the coating being applied in at least two pairs of layers (3, 4, 5, 6), wherein each pair has one layer formed by dissociation of a precursor and then simple deposition of that precursor, and the other layer is formed by at least one of plasma dissociation and excitation of the precursor to form a plasma- enhanced precursor, and then deposition of the plasma-enhanced precursor, wherein each layer differs in at least one diffusion barrier property from the other layer in the pair and adds to an overall barrier effect of the coating, and wherein an additional gas plasma treatment is performed, to improve the interface between two layers with respect to impurity diffusion.
A method for controlling a motorised drive device including an actuator coupled to a movable mechanical load, the method being characterised in that it comprises steps of: a) detecting a loss of electrical power to the motorised drive device, by an electronic control circuit of the motorised drive device, the actuator being in a standby mode and the mechanical load being stationary; b) subsequent to detecting a loss of power, transferring at least a portion of the energy stored in at least a first filter capacitor (C1, C2) connected to the input of a voltage regulator of the motorised drive device, to a second capacitor connected to the output of the voltage regulator, the input of the voltage regulator being connected to electrical power connectors (14, 16) of the motorised drive device; c) determining (104, 106), by the electronic control circuit, during a first time period following the loss of power, whether the mechanical load has moved, the electronic control circuit being powered by the second capacitor during this determining step; d) when power to the motorised drive device is restored, controlling the movement of the load, by the electronic control circuit and by means of the actuator, into a predefined reference position if mechanical load movement has been determined in step c), or otherwise, keeping the mechanical load in its current position if no movement has been determined in step c). a) detecting a loss of electrical power to the motorised drive device, by an electronic control circuit of the motorised drive device, the actuator being in a standby mode and the mechanical load being stationary; b) subsequent to detecting a loss of power, transferring at least a portion of the energy stored in at least a first filter capacitor (C1, C2) connected to the input of a voltage regulator of the motorised drive device, to a second capacitor connected to the output of the voltage regulator, the input of the voltage regulator being connected to electrical power connectors (14, 16) of the motorised drive device; c) determining (104, 106), by the electronic control circuit, during a first time period following the loss of power, whether the mechanical load has moved, the electronic control circuit being powered by the second capacitor during this determining step; d) when power to the motorised drive device is restored, controlling the movement of the load, by the electronic control circuit and by means of the actuator, into a predefined reference position if mechanical load movement has been determined in step c), or otherwise, keeping the mechanical load in its current position if no movement has been determined in step c).
An adjustment system comprising: - a strap having a thickness that is smaller than a width that is itself smaller than a length, the strap being divided into a first strand and a second strand; - an adjustment buckle configured to perform adjustment of the strap, the adjustment buckle defining a channel receiving the strap, the strap being able to slide in the channel by pulling on the first strand or the second strand, the channel having a width at least equal to the width of the strap and a height strictly larger than the thickness of the strap; wherein the adjustment buckle has a body, a partitioning wall and a cover that define the channel, the strap being inserted in the body via the first strand and passing round the partitioning wall to define a loop and exit from the body via the second strand; the cover being facing the strap in a first direction to form an obstacle to enlargement of the loop, wherein the first direction is a direction of measurement of the thickness of the strap between two deformation points of the strap, the two deformation points corresponding to two contact points between the strap and the partitioning wall between which the strap makes a U-turn, characterized in that the cover and the partitioning wall define a slot for the strap to pass through and the cover is separated from the partitioning wall by a distance strictly larger than the thickness of the strap and less than three times the thickness of the strap, so as not to impede the sliding of the strap. - a strap having a thickness that is smaller than a width that is itself smaller than a length, the strap being divided into a first strand and a second strand; - an adjustment buckle configured to perform adjustment of the strap, the adjustment buckle defining a channel receiving the strap, the strap being able to slide in the channel by pulling on the first strand or the second strand, the channel having a width at least equal to the width of the strap and a height strictly larger than the thickness of the strap; wherein the adjustment buckle has a body, a partitioning wall and a cover that define the channel, the strap being inserted in the body via the first strand and passing round the partitioning wall to define a loop and exit from the body via the second strand; the cover being facing the strap in a first direction to form an obstacle to enlargement of the loop, wherein the first direction is a direction of measurement of the thickness of the strap between two deformation points of the strap, the two deformation points corresponding to two contact points between the strap and the partitioning wall between which the strap makes a U-turn, characterized in that the cover and the partitioning wall define a slot for the strap to pass through and the cover is separated from the partitioning wall by a distance strictly larger than the thickness of the strap and less than three times the thickness of the strap, so as not to impede the sliding of the strap.
A false wall device comprising a panel formed of at least one stretched sheet fixed to the base of a frame, with said frame consisting of the assembly of profiled section pieces that form the sides thereof, characterized in that each profiled section piece of the frame has a rectangular, triangular or truncated right-angled triangular cross-section with a top first face, a base opposite said top first face, an external second face and an internal third face, facing the external second face, and each profiled section piece comprises at least three housings (15, 16, 17) each intended to accommodate a peripheral edging of a stretched sheet, a first housing situated near the top first face of the profiled section piece, a second housing situated near the base of said profiled section piece and at least one so-called intermediate third housing, situated between the top first face and the base and arranged in the internal face of the profiled section piece, with said housings (15, 16, 17) intended to accommodate the peripheral edging of a stretched sheet being integrated in the thickness of the profiled section piece, between the internal face and the external face and the third housing comprises a double shoulder, i.e. a shoulder on either side of the opening of the housing.
A mechanic-hydraulic system with a pressure regulator for maintaining a constant tractive force of a winch, comprising a drum, a rope, a pressure regulator, a coupling comprising a hydraulic cylinder, characterized in that it further comprises a pushing cylinder mounted onto forks, a spring and a pole, wherein the pushing cylinder is pushed away with each new layer of the towing rope on the winch drum, wherein the cylinder rotates the axis of forks, which carry the pushing cylinder; that rotation of the forks' axis causes movement of a pole, which pushes a piston of the pressure regulator for one step, consequently causing an increase in oil pressure, which causes an increase of the cylinder piston pressure on couplings, resulting in an increase of the drum momentum; that distances »e«, »f« and »g« change with each movement of the pushing cylinder or the forks' axis due to a new layer of the towing rope on the drum, resulting in closing or opening of the pressure regulator with movable part of attachments, which consequently increases or decreases oil pressure in the hydraulic system, wherein the distance »e« is the distance between the centreline of the axis and an area in a groove, where a first part of the pole is fixed, and the distance »f« is the length of the pole, namely between the first part of the pole and the centreline of the mounting of the second part of the pole in a holder, in contact with the piston of the pressure regulator, and the distance »g« is between the centreline of the axis, where the bottom part of an accessory is mounted, and the centreline of the upper part of the accessory, where the spring is mounted and pre-strained to pull the forks and thereby push the pushing cylinder on the drum; that in accordance with changes in distances »e«, »f« and »g« and directly connected forks of the pushing cylinder, the spring and the pole, an almost constant tractive force of the winch is maintained.
A door leaf comprising a sash, which is joined together from sections of a sash profile (6, 6a, 6b, 6c) and comprising a filling, which is designed in particular as a first insulation layer, wherein the filling has at least one plate-shaped inner shell, wherein a thermally-insulating material is arranged on the inner shell, wherein the sash is connected to the filling by mechanical connecting elements, wherein the sash profile (6, 6a, 6b, 6c) has a fastening web, preferably only a single fastening web, via which the sash profile (6, 6a, 6b, 6c) and thus the sash is connected to the filling in a friction-locked manner by the mechanical connecting elements, and wherein the filling has a first partial recess and a second partial recess in its peripheral regions and the sash is inserted into the two partial recesses (27, 33) of the filling, characterized in that the fastening web, in particular the single fastening web, rests on the inner shell, wherein the mechanical connecting elements are screwed as screws (41, 41a) into the inner shell or are anchored as rivets in the inner shell.
Absorbent solution containing as the only polar solvents a mixture of ethylene carbonate and propylene carbonate in an EC/PC mass ratio comprised between 90/10 and 60/40, saturated with apolar solvents selected from a paraffinic or cycloparaffinic hydrocarbon or a mixture of paraffinic and cycloparaffinic hydrocarbons having from 5 to 10 carbon atoms per molecule.
A composition-of-matter comprising a crystallized large ribosomal subunit of a pathogenic bacterium, wherein the pathogenic bacterium is Staphylococcus aureus, and the crystallized large ribosomal subunit effectively diffracts X-rays for calculating an electron density map and determination of atomic coordinates to a resolution of at least 4 Å.
A code division multiple access, referred to hereinafter as CDMA, communications device comprising: at least one CDMA receiver configured to isolate a CDMA signal; and a processor coupled to said at least one CDMA receiver and configured to determine a center frequency of the isolated CDMA signal, generate a quantized sample representation of the CDMA signal at its center frequency, perform a hard correlation between the quantized sample representation of the CDMA signal and a quantized representation of a reference using a look up table to generate a coarse time alignment, wherein the quantized sample representation of the CDMA signal and the quantized representation of the reference are based on binary values, perform a soft correlation between actual values of the CDMA signal and the reference, characterized in that the quantized values are replaced with actual values and complex multiplications are performed at a particular time alignment based upon the coarse time alignment, determine at least one of signal timing of the CDMA signal based on the soft correlation and signal strength of the CDMA signal based on the soft correlation. at least one CDMA receiver configured to isolate a CDMA signal; and a processor coupled to said at least one CDMA receiver and configured to determine a center frequency of the isolated CDMA signal, generate a quantized sample representation of the CDMA signal at its center frequency, perform a hard correlation between the quantized sample representation of the CDMA signal and a quantized representation of a reference using a look up table to generate a coarse time alignment, wherein the quantized sample representation of the CDMA signal and the quantized representation of the reference are based on binary values, perform a soft correlation between actual values of the CDMA signal and the reference, characterized in that the quantized values are replaced with actual values and complex multiplications are performed at a particular time alignment based upon the coarse time alignment, determine at least one of signal timing of the CDMA signal based on the soft correlation and signal strength of the CDMA signal based on the soft correlation.
A method for producing a photoelectric conversion device comprising a p-type semiconductor substrate cut out from a compound semiconductor single crystal ingot of cadmium telluride or cadmium zinc telluride containing at least one group 1A impurity element, wherein the source of group 1A element is lithium telluride, sodium telluride, or both lithium telluride and sodium telluride, the method comprising: filling a heat-resistant pot with a raw material and a group 1A element combined with part of the raw material, the raw material being cadmium and tellurium or cadmium, tellurium and zinc, melting the raw material to obtain a melt by heating the pot, and diffusing the dissociated group 1A element into the melt, growing a single crystal from the melt, wherein the single crystal has a hole concentration in the range 4 x 10 15 cm -3 to 1 x 10 18 cm -3, and cutting out a p-type semiconductor substrate from the single crystal, lapping the p-type semiconductor substrate; followed by mirror polishing the p-type semiconductor substrate; followed by forming an n-type layer on a first main surface of the p-type semiconductor substrate; followed by forming a front electrode on the surface of the n-type layer; followed by forming a rear electrode on a second main surface of the p-type semiconductor substrate, thereby forming a photoelectric conversion device. filling a heat-resistant pot with a raw material and a group 1A element combined with part of the raw material, the raw material being cadmium and tellurium or cadmium, tellurium and zinc, melting the raw material to obtain a melt by heating the pot, and diffusing the dissociated group 1A element into the melt, growing a single crystal from the melt, wherein the single crystal has a hole concentration in the range 4 x 10 15 cm -3 to 1 x 10 18 cm -3, and cutting out a p-type semiconductor substrate from the single crystal, lapping the p-type semiconductor substrate; followed by mirror polishing the p-type semiconductor substrate; followed by forming an n-type layer on a first main surface of the p-type semiconductor substrate; followed by forming a front electrode on the surface of the n-type layer; followed by forming a rear electrode on a second main surface of the p-type semiconductor substrate, thereby forming a photoelectric conversion device.
Method for detecting a target moiety in a sample of biological specimens by: a) providing at least one conjugate with the general formula A n -P-B m -C q -X o with A: antigen recognizing moiety; P: enzymatically degradable spacer; B: first binding moiety C second binding moiety X: detection moiety; n, m, q, o integers between 1 and 100, wherein B and C are non-covalently bound to each other and A and B are covalently bound to P and wherein the enzymatically degradable spacer P is a polysaccharide b) labelling the target moiety recognized by the antigen recognizing moiety A with at least one conjugate c) detecting the labelled target moiety via detecting moiety X d) cleaving C q -X o by disrupting the non-covalent bond between B m and C q from the labelled target moiety e) cleaving the binding moiety B m from the labelled target moiety by enzymatically degrading spacer P. a) providing at least one conjugate with the general formula A n -P-B m -C q -X o with A: antigen recognizing moiety; P: enzymatically degradable spacer; B: first binding moiety C second binding moiety X: detection moiety; n, m, q, o integers between 1 and 100, wherein B and C are non-covalently bound to each other and A and B are covalently bound to P and wherein the enzymatically degradable spacer P is a polysaccharide A: antigen recognizing moiety; P: enzymatically degradable spacer; B: first binding moiety C second binding moiety X: detection moiety; n, m, q, o integers between 1 and 100, b) labelling the target moiety recognized by the antigen recognizing moiety A with at least one conjugate c) detecting the labelled target moiety via detecting moiety X d) cleaving C q -X o by disrupting the non-covalent bond between B m and C q from the labelled target moiety e) cleaving the binding moiety B m from the labelled target moiety by enzymatically degrading spacer P.
A leveling shoe comprising a base plate which has a bottom surface and a first sliding surface, a top plate which has a standing surface and a second sliding surface, and a wedge element which is arranged between the base plate and the top plate in contact with the first and second sliding surfaces (16, 22), the wedge element having a screw spindle which is rotatably and in an axial direction of the screw spindle non-displaceably mounted in the wedge element, wherein a rotation of the screw spindle causes a displacement of the wedge element relative to the top plate and the base plate, wherein the leveling shoe further comprises a blocking device for preventing a displacement of the wedge element relative to the top plate and the base plate, characterized in that the blocking device interacts with the screw spindle.