mhurhangee/patent-ind-claim-en huggingface dataset:
System for connecting a medical implant to an insertion aid , comprising: - a medical implant made of a helically wound wire , wherein the wire is formed into a first loop at the proximal end of the medical implant ; - a cylindrical, hollow insertion aid with a second loop at the distal end of the insertion aid ; and - a locking wire , which is extend through the hollow insertion aid and is relatively movable to the insertion aid ; wherein in a first operating state, in which the medical implant is connected to the insertion aid , the second loop of the insertion aid extends through the first loop of the medical implant and the locking wire extends through the second loop of the insertion aid , so that the first loop of the medical implant is arranged between the second loop of the insertion aid and the locking wire ; and wherein in a second operating state the locking wire is retracted into the hollow insertion aid and out of the second loop , so that the first loop of the medical implant is no longer connected to the second loop of the insertion aid characterized in that the medical implant has a double helical winding at the proximal end, one winding into the direction of the first loop and one winding back into the direction of the distal end, which are interleaved to built a continuous surface. - a medical implant made of a helically wound wire , wherein the wire is formed into a first loop at the proximal end of the medical implant ; - a cylindrical, hollow insertion aid with a second loop at the distal end of the insertion aid ; and - a locking wire , which is extend through the hollow insertion aid and is relatively movable to the insertion aid ; wherein in a first operating state, in which the medical implant is connected to the insertion aid , the second loop of the insertion aid extends through the first loop of the medical implant and the locking wire extends through the second loop of the insertion aid , so that the first loop of the medical implant is arranged between the second loop of the insertion aid and the locking wire ; and wherein in a second operating state the locking wire is retracted into the hollow insertion aid and out of the second loop , so that the first loop of the medical implant is no longer connected to the second loop of the insertion aid characterized in that the medical implant has a double helical winding at the proximal end, one winding into the direction of the first loop and one winding back into the direction of the distal end, which are interleaved to built a continuous surface.
A bifunctional compound represented by the following formula : wherein R 1 is a hydrogen atom, CH 3 , or C 2 H 5 ; R 2 and R 3 are each independently a hydrogen atom or CH 3 ; and X is a hydrogen atom or a hydrocarbon group having no more than 4 carbon atoms and optionally containing a hydroxyl group.
A method for welding at least two profiles to form a frame portion , with the following steps: - Providing two profiles to be welded via welding surfaces ; - Heating the welding surfaces of the profiles via a heating unit having at least one heating surface that faces at least one welding surface of the profiles ; - Moving a cutting unit along at least one welding surface to remove melted material, wherein the cutting unit is moved along at least one edge of the welding surface to remove melted material at the edge region of the at least one welding surface , and wherein the cutting unit is moved along the at least one welding surface before the profiles are coupled via their heated welding surfaces ; and - Coupling the profiles via their heated welding surfaces to form the frame portion . - Providing two profiles to be welded via welding surfaces ; - Heating the welding surfaces of the profiles via a heating unit having at least one heating surface that faces at least one welding surface of the profiles ; - Moving a cutting unit along at least one welding surface to remove melted material, wherein the cutting unit is moved along at least one edge of the welding surface to remove melted material at the edge region of the at least one welding surface , and wherein the cutting unit is moved along the at least one welding surface before the profiles are coupled via their heated welding surfaces ; and - Coupling the profiles via their heated welding surfaces to form the frame portion .
An electric motor control apparatus , comprising: a speed ripple component extraction unit configured to extract a speed ripple component (Δωr) from a difference between an angular frequency command (ωcom) and an angular frequency feedback (ωFB); a phase locked loop circuit configured to generate a phase (θ) of the speed ripple component (Δωr) based on at least the speed ripple component and a given offset value; a torque compensation value generation unit configured to multiply a value (f(θ)) of a periodic function (f) corresponding to the phase (θ) and a given amplitude (A) by each other, to thereby generate a torque compensation value (Tc); a speed control unit configured to calculate a torque command value (Tcom) from the difference between the angular frequency command (ωcom) and the angular frequency feedback (ωFB); and a current control unit configured to control a current to be output to an electric motor based on a compensated torque command (T) obtained by adding the torque compensation value (Tc) to the torque command value (Tcom). a speed ripple component extraction unit configured to extract a speed ripple component (Δωr) from a difference between an angular frequency command (ωcom) and an angular frequency feedback (ωFB); a phase locked loop circuit configured to generate a phase (θ) of the speed ripple component (Δωr) based on at least the speed ripple component and a given offset value; a torque compensation value generation unit configured to multiply a value (f(θ)) of a periodic function (f) corresponding to the phase (θ) and a given amplitude (A) by each other, to thereby generate a torque compensation value (Tc); a speed control unit configured to calculate a torque command value (Tcom) from the difference between the angular frequency command (ωcom) and the angular frequency feedback (ωFB); and a current control unit configured to control a current to be output to an electric motor based on a compensated torque command (T) obtained by adding the torque compensation value (Tc) to the torque command value (Tcom).
A vertical column assembly for supporting cabling and active network equipment, the vertical column assembly comprising: an intermediate distribution frame enclosure with an internal structure ; side panels ; door assemblies ; and a top cover assembly ; wherein the internal structure is hidden by the side panels , the door assemblies , and the top cover assembly ; the assembly characterized in that : the door assemblies include door hinges secured to one of the mounting brackets and a main body with perforated vents to ventilate heat generated by the network equipment ; and in that the door assemblies further comprising an exhaust fan secured to the main body , the exhaust fan being arranged to evacuate the hot air generated by the network equipment . an intermediate distribution frame enclosure with an internal structure ; side panels ; door assemblies ; and a top cover assembly ; wherein the internal structure is hidden by the side panels , the door assemblies , and the top cover assembly ; the assembly characterized in that : the door assemblies include door hinges secured to one of the mounting brackets and a main body with perforated vents to ventilate heat generated by the network equipment ; and in that the door assemblies further comprising an exhaust fan secured to the main body , the exhaust fan being arranged to evacuate the hot air generated by the network equipment . the door assemblies include door hinges secured to one of the mounting brackets and a main body with perforated vents to ventilate heat generated by the network equipment ; and in that the door assemblies further comprising an exhaust fan secured to the main body , the exhaust fan being arranged to evacuate the hot air generated by the network equipment .
A method of monitoring interaction of an individual and a product, the method comprising: providing a multi-tone radar comprising a transmitter and a receiver, wherein the transmitter comprises a transmit antenna and the receiver comprises a harmonic radar antenna and a doppler antenna; providing a product comprising a harmonic tag; transmitting a signal using the transmitter, wherein the signal comprises at least one tone at an incident frequency; receiving a reflected signal based on the signal interacting with an individual, wherein the reflected signal is received by the receiver; measuring one or more movements of the individual using micro-Doppler information contained in the reflected signal; receiving a re-radiated signal based on the signal interacting with the harmonic tag, wherein the re-radiated signal is detected by the harmonic radar antenna, and wherein the re-radiated signal is at a harmonic frequency of the incident frequency; measuring one or more movements of the product using the harmonic frequency and micro-Doppler information contained in the re-radiated signal; and distinguishing the one or more movements of the individual based on the reflected signal and the one or more movements of the product based on the re-radiated signal. providing a multi-tone radar comprising a transmitter and a receiver, wherein the transmitter comprises a transmit antenna and the receiver comprises a harmonic radar antenna and a doppler antenna; providing a product comprising a harmonic tag; transmitting a signal using the transmitter, wherein the signal comprises at least one tone at an incident frequency; receiving a reflected signal based on the signal interacting with an individual, wherein the reflected signal is received by the receiver; measuring one or more movements of the individual using micro-Doppler information contained in the reflected signal; receiving a re-radiated signal based on the signal interacting with the harmonic tag, wherein the re-radiated signal is detected by the harmonic radar antenna, and wherein the re-radiated signal is at a harmonic frequency of the incident frequency; measuring one or more movements of the product using the harmonic frequency and micro-Doppler information contained in the re-radiated signal; and distinguishing the one or more movements of the individual based on the reflected signal and the one or more movements of the product based on the re-radiated signal.
An inflatable penile prosthesis comprising: an inflatable member ; a reservoir configured to hold fluid; and a reversible flow pump assembly configured to facilitate a transfer of the fluid from the reservoir to the inflatable member when in an inflation mode, and facilitate the transfer of the fluid from the inflatable member to the reservoir when in a deflation mode, the reversible flow pump assembly including: a pump ; an input check valve coupled to the pump , the input check valve configured to permit transfer of fluid into the pump ; an output check valve coupled to the pump , the output check valve configured to permit transfer of fluid out of the pump ; and a reversing valve configured to switch between the inflation mode and the deflation mode; and characterised in that the reversing valve includes a first port coupled to an inlet of the input check valve , a second port coupled to an outlet of the output check valve , a third port fluidly coupled to the reservoir , and a fourth port fluidly coupled to the inflatable member . an inflatable member ; a reservoir configured to hold fluid; and a reversible flow pump assembly configured to facilitate a transfer of the fluid from the reservoir to the inflatable member when in an inflation mode, and facilitate the transfer of the fluid from the inflatable member to the reservoir when in a deflation mode, the reversible flow pump assembly including: a pump ; an input check valve coupled to the pump , the input check valve configured to permit transfer of fluid into the pump ; an output check valve coupled to the pump , the output check valve configured to permit transfer of fluid out of the pump ; and a reversing valve configured to switch between the inflation mode and the deflation mode; and characterised in that the reversing valve includes a first port coupled to an inlet of the input check valve , a second port coupled to an outlet of the output check valve , a third port fluidly coupled to the reservoir , and a fourth port fluidly coupled to the inflatable member . a pump ; an input check valve coupled to the pump , the input check valve configured to permit transfer of fluid into the pump ; an output check valve coupled to the pump , the output check valve configured to permit transfer of fluid out of the pump ; and a reversing valve configured to switch between the inflation mode and the deflation mode; and characterised in that the reversing valve includes a first port coupled to an inlet of the input check valve , a second port coupled to an outlet of the output check valve , a third port fluidly coupled to the reservoir , and a fourth port fluidly coupled to the inflatable member .
A method of encoding a video which includes a sequence of pictures having a single resolution by dividing each of the pictures in the unit of blocks, the method comprising: determining a macroblock size in the unit of the entire sequence of pictures for encoding image data of the sequence; encoding a first information indicating a reference macroblock size and a second information indicating a ratio of the macroblock size to the reference macroblock size, so as to indicate the macroblock size, wherein: the reference macroblock size is a minimum macroblock size, the second information is encoded as a value of log 2 (MBsize / X) where MBsize is the macroblock size, X is the reference macroblock size, and both MBsize and X are a number of pixels in one dimension, and the first and second information are encoded into a header of the sequence in a bitstream; and encoding into the bitstream the image data of the sequence by dividing every and each of the pictures in the unit of macroblocks having the macroblock size. determining a macroblock size in the unit of the entire sequence of pictures for encoding image data of the sequence; encoding a first information indicating a reference macroblock size and a second information indicating a ratio of the macroblock size to the reference macroblock size, so as to indicate the macroblock size, wherein: the reference macroblock size is a minimum macroblock size, the second information is encoded as a value of log 2 (MBsize / X) where MBsize is the macroblock size, X is the reference macroblock size, and both MBsize and X are a number of pixels in one dimension, and the first and second information are encoded into a header of the sequence in a bitstream; and the reference macroblock size is a minimum macroblock size, the second information is encoded as a value of log 2 (MBsize / X) where MBsize is the macroblock size, X is the reference macroblock size, and both MBsize and X are a number of pixels in one dimension, and the first and second information are encoded into a header of the sequence in a bitstream; and encoding into the bitstream the image data of the sequence by dividing every and each of the pictures in the unit of macroblocks having the macroblock size.
An assembly , characterized by : a circuit board having a perimeter edge ; an enclosure having a bottom wall and at least one sidewall disposed around a perimeter of the bottom wall, the sidewall including an inclined interior wall surface such that the enclosure defines a cavity between the bottom wall and the at least one sidewall, the cavity having a cross-sectional dimension that diverges away from the bottom wall; and at least one metal shield (16, 116a, b) attached to the circuit board for protecting the printed circuit board from electromagnetic interference, the shield comprising a metal plate (32, 132a, b) having a perimeter portion and a plurality of tangs (36, 136a, b) extending away from the perimeter portion, the circuit board and the shield disposed in the cavity of the enclosure such that each of the tangs of the shield are disposed between the perimeter edge of the circuit board and the at least one sidewall of the enclosure such that the inclined interior wall surface of the at least one sidewall urges the tangs toward the perimeter edge of the circuit board. a circuit board having a perimeter edge ; an enclosure having a bottom wall and at least one sidewall disposed around a perimeter of the bottom wall, the sidewall including an inclined interior wall surface such that the enclosure defines a cavity between the bottom wall and the at least one sidewall, the cavity having a cross-sectional dimension that diverges away from the bottom wall; and at least one metal shield (16, 116a, b) attached to the circuit board for protecting the printed circuit board from electromagnetic interference, the shield comprising a metal plate (32, 132a, b) having a perimeter portion and a plurality of tangs (36, 136a, b) extending away from the perimeter portion, the circuit board and the shield disposed in the cavity of the enclosure such that each of the tangs of the shield are disposed between the perimeter edge of the circuit board and the at least one sidewall of the enclosure such that the inclined interior wall surface of the at least one sidewall urges the tangs toward the perimeter edge of the circuit board.
A subcutaneously implantable device when subcutaneously implanted for delivering an agent to a subject comprising: a cell that produces said agent; and a scaffold comprising cubic pores, with a lid region and/or a base region comprising cubic pores with maximum dimensions ranging from 5-25 μm, and a centre region comprising cubic pores with maximum dimension ranging from 500-1500 μm, wherein: the cell is associated with the scaffold; the cell is encapsulated prior to being associated with the scaffold; the pores of the center region are large enough to allow a single encapsulated cell to be housed; the scaffold enhances the viability of the scaffold-associated cell after implantation by promoting vascularisation at the site of implantation; and the scaffold increases vascularisation at the site of subcutaneous implantation when compared to subcutaneous implantation of the same cell type without said scaffold. a cell that produces said agent; and a scaffold comprising cubic pores, with a lid region and/or a base region comprising cubic pores with maximum dimensions ranging from 5-25 μm, and a centre region comprising cubic pores with maximum dimension ranging from 500-1500 μm, the cell is associated with the scaffold; the cell is encapsulated prior to being associated with the scaffold; the pores of the center region are large enough to allow a single encapsulated cell to be housed; the scaffold enhances the viability of the scaffold-associated cell after implantation by promoting vascularisation at the site of implantation; and the scaffold increases vascularisation at the site of subcutaneous implantation when compared to subcutaneous implantation of the same cell type without said scaffold.
A communication method, comprising: configuring (S201), by a communication apparatus , power configuration information for each of at least two precoding matrix groups, wherein the power configuration information is used to indicate a power configuration of a corresponding precoding matrix group of the at least two precoding matrix groups, and the at least two precoding matrix groups belong to a same resource used to measure channel state information, CSI; and sending (S202), by the communication apparatus , the power configuration information; wherein the configuring, by a communication apparatus , of power configuration information for each of at least two precoding matrix groups comprises: configuring, by the communication apparatus , first power configuration information for a vertical precoding matrix group, and configuring second power configuration information for a horizontal precoding matrix group, wherein the vertical precoding matrix group and the horizontal precoding matrix group belong to a same resource used to measure CSI, the vertical precoding matrix group indicates a vertical beam after a horizontal direction is determined, and the horizontal precoding matrix group indicates a horizontal beam after a vertical direction is determined. configuring (S201), by a communication apparatus , power configuration information for each of at least two precoding matrix groups, wherein the power configuration information is used to indicate a power configuration of a corresponding precoding matrix group of the at least two precoding matrix groups, and the at least two precoding matrix groups belong to a same resource used to measure channel state information, CSI; and sending (S202), by the communication apparatus , the power configuration information; wherein the configuring, by a communication apparatus , of power configuration information for each of at least two precoding matrix groups comprises: configuring, by the communication apparatus , first power configuration information for a vertical precoding matrix group, and configuring second power configuration information for a horizontal precoding matrix group, wherein the vertical precoding matrix group and the horizontal precoding matrix group belong to a same resource used to measure CSI, the vertical precoding matrix group indicates a vertical beam after a horizontal direction is determined, and the horizontal precoding matrix group indicates a horizontal beam after a vertical direction is determined.