mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for treating a tooth or gum tissue, the apparatus comprising: a tooth cap for supporting a treatment device during a treatment procedure, the tooth cap comprising: a platform to support the treatment device, the platform comprising an access port to provide a portion of the treatment device with access to a treatment region of the tooth or gum tissue; a wall coupled with and angled relative to the platform , the wall being sized and configured to extend along a side surface of the tooth and to be attached to the tooth or gum tissue during treatment, and wherein the tooth cap is configured such that, when the tooth cap is attached to the tooth or gum tissue, the wall is disposed apart from the tooth or gum tissue to provide space for a coupling material to be disposed between the wall and the tooth or gum tissue, and an injection port to inject the coupling material into the space between the wall and the tooth or gum tissue. a platform to support the treatment device, the platform comprising an access port to provide a portion of the treatment device with access to a treatment region of the tooth or gum tissue; a wall coupled with and angled relative to the platform , the wall being sized and configured to extend along a side surface of the tooth and to be attached to the tooth or gum tissue during treatment, and wherein the tooth cap is configured such that, when the tooth cap is attached to the tooth or gum tissue, the wall is disposed apart from the tooth or gum tissue to provide space for a coupling material to be disposed between the wall and the tooth or gum tissue, and an injection port to inject the coupling material into the space between the wall and the tooth or gum tissue.
An implantable device for improving the pump function of the heart of a human patient by applying an external force on a first position of the heart muscle, said implantable device comprising a first pump device adapted to assist the pump function of the heart, said pump device comprising: a first reservoir having a first volume and being adapted to vary said first volume, a second reservoir having a second volume and being adapted to vary said second volume, a fluid connection adapted to fluidly connect said first reservoir with said second reservoir, such that fluid can flow between said first reservoir and said second reservoir, and an internal control unit , wherein said first reservoir, said second reservoir and said fluid connection form a fully implantable pump device adapted to maintain a fluid in a closed system, when in operation, and wherein said fully implantable pump device is adapted to transfer force by transferring fluid from said first reservoir to said second reservoir to apply an external force on the first position of the heart muscle, characterised in that said control unit comprises: an injection port for calibrating a fluid level of the closed system, and a sensor configured to directly or indirectly sense muscle contraction of the heart, wherein said control unit is configured to control said implantable device according to the sensed information. a first reservoir having a first volume and being adapted to vary said first volume, a second reservoir having a second volume and being adapted to vary said second volume, a fluid connection adapted to fluidly connect said first reservoir with said second reservoir, such that fluid can flow between said first reservoir and said second reservoir, and an internal control unit , wherein said first reservoir, said second reservoir and said fluid connection form a fully implantable pump device adapted to maintain a fluid in a closed system, when in operation, and wherein said fully implantable pump device is adapted to transfer force by transferring fluid from said first reservoir to said second reservoir to apply an external force on the first position of the heart muscle, characterised in that said control unit comprises: an injection port for calibrating a fluid level of the closed system, and a sensor configured to directly or indirectly sense muscle contraction of the heart, wherein said control unit is configured to control said implantable device according to the sensed information. an injection port for calibrating a fluid level of the closed system, and a sensor configured to directly or indirectly sense muscle contraction of the heart, wherein said control unit is configured to control said implantable device according to the sensed information.
A substrate assembly for an encapsulation structure, comprising: a micro-electromechanical system, MEMS, device; a substrate, comprising a plurality of different materials, wherein the plurality of different materials comprise a first-type material and a second-type material, wherein a coefficient of thermal expansion of the first-type material is less than a coefficient of thermal expansion of a base material of the MEMS device, and/or a coefficient of thermal expansion of the second-type material is greater than the coefficient of thermal expansion of the base material of the MEMS device; and an attachment material, located between the MEMS device and the substrate, and configured to attach the MEMS device to the substrate, and characterised in that the substrate is formed by mixing the plurality of different materials based on a preset proportion. a micro-electromechanical system, MEMS, device; a substrate, comprising a plurality of different materials, wherein the plurality of different materials comprise a first-type material and a second-type material, wherein a coefficient of thermal expansion of the first-type material is less than a coefficient of thermal expansion of a base material of the MEMS device, and/or a coefficient of thermal expansion of the second-type material is greater than the coefficient of thermal expansion of the base material of the MEMS device; and an attachment material, located between the MEMS device and the substrate, and configured to attach the MEMS device to the substrate, and characterised in that the substrate is formed by mixing the plurality of different materials based on a preset proportion.
A power converter device comprising: first through third semiconductor modules (300U-300W) respectively provided for three phases of a 3 phase inverter circuit, and incorporating upper and lower arm series circuits; and a flow path forming cabinet in a rectangular prism shape having an electric equipment containing space and a coolant flow path formed to surround the electric equipment containing space; wherein the coolant flow path includes a first flow path provided along a first side face of the flow path forming cabinet, a second flow path provided along a second side face contiguous to one side of the first side face, and connected to one end of the first flow path, and a third flow path provided along a third side face contiguous to the other side of the first side face, and connected to the other end of the first flow path , wherein the first semiconductor module is arranged at the first flow path in parallel with the first side face, wherein the second semiconductor module is arranged at the second flow path in parallel with the second side face, and wherein the third semiconductor module is arranged at the third flow path in parallel with the third side face; characterized in that the first flow path is formed such that at least one portion of the first semiconductor module is arranged at an area interposed by the second and the third semiconductor modules . first through third semiconductor modules (300U-300W) respectively provided for three phases of a 3 phase inverter circuit, and incorporating upper and lower arm series circuits; and a flow path forming cabinet in a rectangular prism shape having an electric equipment containing space and a coolant flow path formed to surround the electric equipment containing space; wherein the coolant flow path includes a first flow path provided along a first side face of the flow path forming cabinet, a second flow path provided along a second side face contiguous to one side of the first side face, and connected to one end of the first flow path, and a third flow path provided along a third side face contiguous to the other side of the first side face, and connected to the other end of the first flow path , wherein the first semiconductor module is arranged at the first flow path in parallel with the first side face, wherein the second semiconductor module is arranged at the second flow path in parallel with the second side face, and wherein the third semiconductor module is arranged at the third flow path in parallel with the third side face; characterized in that the first flow path is formed such that at least one portion of the first semiconductor module is arranged at an area interposed by the second and the third semiconductor modules .
A method for producing a carbon fiber composite comprising the steps of: preparing a fine cellulose-metal fine particle composite by reducing a metal fine particle consisting of one or more types of metals or compounds thereof to deposit on fine cellulose having carboxyl groups on the crystalline surface thereof; and preparing a carbon fiber composite by carbonizing fine cellulose part of the fine cellulose-metal fine particle composite.
A bezel for a timepiece, comprising an annular slot with a bottom and two walls , wherein a ring made of a luminescent material is disposed on the bottom, said ring being topped by a second ring made of a mineral material occupying the volume of said slot, characterised in that said slot comprises in each of said two walls , a groove arranged so as to receive one toric-shaped seal , said seal cooperating with said second ring .
An implant device , comprising: a top plate coupled to a bottom plate by a hinge , wherein the top plate comprises an extended anterior wall and the bottom plate comprises an extended anterior wall ; a linkage disposed between the top and bottom plates; a moveable chassis positioned within the bottom plate ; a screw positioned within and engaged with the moveable chassis ; and a washer disposed about the screw , wherein rotation of the screw is configured to cause incremental ratchet movement of the chassis , and to cause the linkage to move from a collapsed position in which the extended anterior wall of the top plate and the extended anterior wall of the bottom plate are substantially parallel with each other, to an expanded position in which the top plate is pushed away from the bottom plate , such that the top plate and the bottom plate form an angle with respect to each other. a top plate coupled to a bottom plate by a hinge , wherein the top plate comprises an extended anterior wall and the bottom plate comprises an extended anterior wall ; a linkage disposed between the top and bottom plates; a moveable chassis positioned within the bottom plate ; a screw positioned within and engaged with the moveable chassis ; and a washer disposed about the screw , wherein rotation of the screw is configured to cause incremental ratchet movement of the chassis , and to cause the linkage to move from a collapsed position in which the extended anterior wall of the top plate and the extended anterior wall of the bottom plate are substantially parallel with each other, to an expanded position in which the top plate is pushed away from the bottom plate , such that the top plate and the bottom plate form an angle with respect to each other.
A method performed in a first communication device for enabling device-to-device communication between the first communication device and a second communication device in a radio communications network using multiple transmission patterns; the method comprising: receiving a message from a control node , which message instructs the first communication device to multiplex control information for next data transmission with data in a first data transmission; transmitting a first scheduling assignment indicating a first transmission pattern from the first communication device to the second communication device ; transmitting data in a first data transmission to the second communication device according to the first transmission pattern indicated by the transmitted first scheduling assignment; transmitting the control information multiplexed with the data to the second communication device , which control information indicates a second transmission pattern for a next data transmission from the first communication device to the second communication device ,wherein the first transmission pattern is different than the second transmission pattern; and transmitting additional data to the second communication device according to the second transmission pattern in the next data transmission. receiving a message from a control node , which message instructs the first communication device to multiplex control information for next data transmission with data in a first data transmission; transmitting a first scheduling assignment indicating a first transmission pattern from the first communication device to the second communication device ; transmitting data in a first data transmission to the second communication device according to the first transmission pattern indicated by the transmitted first scheduling assignment; transmitting the control information multiplexed with the data to the second communication device , which control information indicates a second transmission pattern for a next data transmission from the first communication device to the second communication device ,wherein the first transmission pattern is different than the second transmission pattern; and transmitting additional data to the second communication device according to the second transmission pattern in the next data transmission.
A solar roof covering for mounting on a roof support structure, in particular for forming a rainproof solar roof, comprising: - a plurality of solar roof tiles , which respectively comprise a photovoltaic cell or a photovoltaic module, and - a plurality of mounting blocks , wherein, in order to mount the solar roof covering on the roof support structure, the mounting blocks are connectable to the roof support structure and the solar roof tiles are connectable to the mounting blocks , wherein, in order to mount the solar roof covering on the roof support structure, at least a part of the solar roof tiles is connectable to the mounting blocks in such a manner that two solar roof tiles respectively form a mechanical and electrical connection with the same mounting block , wherein at least a part of the solar roof tiles respectively comprises at least one mechanical connecting element and at least one retaining device arranged on the side opposite the photovoltaic cell or the photovoltaic module, wherein the retaining device is configured to be engaged with a roof slat and/or an edge of another solar roof tile , wherein at least a part of the mounting blocks respectively comprise at least one mechanical connecting element , wherein, for the mechanical connection of a solar roof tile and a mounting block , the at least one mechanical connecting element of the solar roof tile and the at least one mechanical connecting element of the mounting block interact, wherein the mechanical connecting elements are plug-in connecting elements and/or snap-in connecting elements. - a plurality of solar roof tiles , which respectively comprise a photovoltaic cell or a photovoltaic module, and - a plurality of mounting blocks , wherein, in order to mount the solar roof covering on the roof support structure, at least a part of the solar roof tiles is connectable to the mounting blocks in such a manner that two solar roof tiles respectively form a mechanical and electrical connection with the same mounting block , wherein at least a part of the solar roof tiles respectively comprises at least one mechanical connecting element and at least one retaining device arranged on the side opposite the photovoltaic cell or the photovoltaic module, wherein the retaining device is configured to be engaged with a roof slat and/or an edge of another solar roof tile , wherein at least a part of the mounting blocks respectively comprise at least one mechanical connecting element , wherein, for the mechanical connection of a solar roof tile and a mounting block , the at least one mechanical connecting element of the solar roof tile and the at least one mechanical connecting element of the mounting block interact, wherein the mechanical connecting elements are plug-in connecting elements and/or snap-in connecting elements.
3D imager comprising: • at least one pixel, each pixel comprising a photodetector for detecting photon incidence and a time-to-digital converter system configured for referencing said photon incidence to a reference clock; and • a reference clock generator for generating said reference clock; wherein: • the reference clock is frequency adjustable through edge division of a high frequency system clock; • the 3D imager is configured so that said photon incidence triggers the start signal; • the 3D imager is configured so that the subsequent edge of reference clock is used as the stop signal; • the reference clock has a clock period that is adjusted to coincide with a desired predetermined object range and so that the estimated time up to a subsequent photon incidence falls within the period of the reference clock. • at least one pixel, each pixel comprising a photodetector for detecting photon incidence and a time-to-digital converter system configured for referencing said photon incidence to a reference clock; and • a reference clock generator for generating said reference clock; • the reference clock is frequency adjustable through edge division of a high frequency system clock; • the 3D imager is configured so that said photon incidence triggers the start signal; • the 3D imager is configured so that the subsequent edge of reference clock is used as the stop signal; • the reference clock has a clock period that is adjusted to coincide with a desired predetermined object range and so that the estimated time up to a subsequent photon incidence falls within the period of the reference clock.
An encoding method, wherein the method is performed by an encoding device, and comprises: encoding first data in a first encoding manner to generate a first encoded sequence; encoding second data in a second encoding manner to generate a second encoded sequence, wherein a quantity of bits comprised in the first data is greater than a quantity of bits comprised in the second data, and a quantity of bits comprised in the first encoded sequence is equal to a quantity of bits comprised in the second encoded sequence; performing Four-level Pulse Amplitude Modulation, PAM-4, modulation on an input signal to generate a symbol sequence, wherein the input signal comprises the first encoded sequence and the second encoded sequence, the first encoded sequence corresponds to a high bit of the input signal, and the second encoded sequence corresponds to a low bit of the input signal; and sending the symbol sequence; characterized in that the first data comprises 6448 bits, and the second data comprises 5668 bits; or the first data comprises 5324 bits, and the second data comprises 4700 bits; or the first data comprises 27436 bits, and the second data comprises 19600 bits. encoding first data in a first encoding manner to generate a first encoded sequence; encoding second data in a second encoding manner to generate a second encoded sequence, wherein a quantity of bits comprised in the first data is greater than a quantity of bits comprised in the second data, and a quantity of bits comprised in the first encoded sequence is equal to a quantity of bits comprised in the second encoded sequence; performing Four-level Pulse Amplitude Modulation, PAM-4, modulation on an input signal to generate a symbol sequence, wherein the input signal comprises the first encoded sequence and the second encoded sequence, the first encoded sequence corresponds to a high bit of the input signal, and the second encoded sequence corresponds to a low bit of the input signal; and sending the symbol sequence; characterized in that the first data comprises 6448 bits, and the second data comprises 5668 bits; or the first data comprises 5324 bits, and the second data comprises 4700 bits; or the first data comprises 27436 bits, and the second data comprises 19600 bits.
A device for urinary catheterisation comprising: a catheter 10 having an elongate body 12 provided with a distal tip 16, a proximal end 18, and a drainage channel 14 and a separate guidewire channel 32 extending therethrough; a guidewire 38 extending through the guidewire channel for guiding the catheter upon insertion; and a lubrication port 34 at or towards the proximal end of the elongate body, the lubrication port comprising a side arm in fluid communication with the guidewire channel for the introduction of a guidewire lubrication fluid into the guidewire channel; wherein the drainage channel extends along the centre of the elongate body and the guidewire channel extends parallel to the drainage channel along one side of the elongate body. a catheter 10 having an elongate body 12 provided with a distal tip 16, a proximal end 18, and a drainage channel 14 and a separate guidewire channel 32 extending therethrough; a guidewire 38 extending through the guidewire channel for guiding the catheter upon insertion; and a lubrication port 34 at or towards the proximal end of the elongate body, the lubrication port comprising a side arm in fluid communication with the guidewire channel for the introduction of a guidewire lubrication fluid into the guidewire channel; wherein the drainage channel extends along the centre of the elongate body and the guidewire channel extends parallel to the drainage channel along one side of the elongate body.
A polymeric or rigid mineral material substrate coated with a stack of thin layers forming a functional coating which can act on solar radiation and/or infrared radiation, said coating comprising two metallic functional layers (F), each disposed between two dielectric coatings (Di), so as to comprise at least the sequence of layers Di1/F1/Di2/F2/Di3 starting from the substrate, each dielectric coating (Di) comprising at least one layer of dielectric material, characterized in that the coating comprises at least two layers which absorb in the visible region (A1, A2), disposed at least in two different dielectric coatings, the absorbent layers (A1, A2) are separated from the metallic functional layers (F) by at least one dielectric layer, the geometric thickness of all the dielectric layers separating each absorbent layer from a metallic functional layer (F) is greater than or equal to 5 nm, the absorbent layers are chosen from layers based on one of the following materials: NbN, TiN, NiCrN, SnZnN, ZrN, Ti, NiCr, Nb, Zr or a mixture thereof.