mhurhangee/patent-ind-claim-en huggingface dataset:
Printing assembly comprising a medium support surface , a guide assembly and a carriage support structure for moveably supporting a print head carriage on the guide assembly, wherein the guide assembly is arranged to move the print head carriage in a carriage plane, which carriage plane is parallel to the medium support surface, • the guide assembly comprising a) a guide beam ; and b) a guide rail arranged on the guide beam, wherein the guide rail and the guide beam each extend in a scanning direction; • the printer carriage support structure comprising c) a guide frame arranged on the guide rail, the guide frame being moveable in the scanning direction and extending in the scanning direction between a first support position and a second support position, wherein the guide frame is supported on the guide rail at said first support position and at said second support position; and d) a carriage frame moveably supported on the guide rail through the guide frame; wherein the carriage frame is coupled to the guide frame such that the carriage frame is moveable relative to the guide frame in the carriage plane and wherein the carriage frame is positioned in the carriage plane relative to the guide beam by support means, the support means supporting the carriage frame against a flat surface provided by the guide beam. • the guide assembly comprising a) a guide beam ; and b) a guide rail arranged on the guide beam, wherein the guide rail and the guide beam each extend in a scanning direction; a) a guide beam ; and b) a guide rail arranged on the guide beam, wherein the guide rail and the guide beam each extend in a scanning direction; • the printer carriage support structure comprising c) a guide frame arranged on the guide rail, the guide frame being moveable in the scanning direction and extending in the scanning direction between a first support position and a second support position, wherein the guide frame is supported on the guide rail at said first support position and at said second support position; and d) a carriage frame moveably supported on the guide rail through the guide frame; c) a guide frame arranged on the guide rail, the guide frame being moveable in the scanning direction and extending in the scanning direction between a first support position and a second support position, wherein the guide frame is supported on the guide rail at said first support position and at said second support position; and d) a carriage frame moveably supported on the guide rail through the guide frame;
A drug product comprising: a dry powder inhalation device having a pharmaceutical composition present therein, said pharmaceutical composition comprising a compound which is (6α, 11β,16α, 17α)-6,9-difluoro-17-{[(fluoromethyl)thio]carbonyl}-11-hydroxy-16-methyl-3-oxoandrosta-1,4-dien-17-yl 2- furancarboxylate or a solvate thereof; a hygroscopic material, and a package which encompasses the dry powder inhalation device and the hygroscopic material defining an enclosed volume therein, wherein the enclosed volume exhibits a Relative Humidity of from 20% to 40%.
Mechanical train for the drive of a motor vehicle, in particular of a commercial vehicle, comprising: a housing which is sealed in order to receive a lubricant and has at least one housing wall ; a mechanical system which is arranged in the housing , is wetted by the lubricant, and has at least one shaft for the transmission of drive power in the longitudinal direction; and a multiplicity of channels for receiving a fluid, at least sections of the channels running within the housing wall in the longitudinal direction and being separated from the lubricant by way of the housing wall, the channels being connected fluidically or being capable of being connected fluidically to a thermal circuit, characterized by predetermined break points in an outer face of the housing wall, which predetermined break points are configured to connect the channels fluidically to the exterior of the housing wall in the case of a pressure of the fluid in the channels , which pressure is greater than a predefined pressure threshold. a housing which is sealed in order to receive a lubricant and has at least one housing wall ; a mechanical system which is arranged in the housing , is wetted by the lubricant, and has at least one shaft for the transmission of drive power in the longitudinal direction; and a multiplicity of channels for receiving a fluid, at least sections of the channels running within the housing wall in the longitudinal direction and being separated from the lubricant by way of the housing wall, the channels being connected fluidically or being capable of being connected fluidically to a thermal circuit, characterized by predetermined break points in an outer face of the housing wall, which predetermined break points are configured to connect the channels fluidically to the exterior of the housing wall in the case of a pressure of the fluid in the channels , which pressure is greater than a predefined pressure threshold.
A semiconductor device, comprising: a field effect transistor having a gate terminal to turn on and off a channel region within a body region , the body region being disposed between first and second regions, the body region and the first and second regions being disposed within a layer of a first semiconductor material having a band-gap, the first region of the field effect transistor being coupled to a source contact; an electrode having first and second ends , the first end of the electrode being coupled to the second region of the field effect transistor; a voltage-support structure including a second semiconductor material having a band-gap that is larger than the band-gap of the first semiconductor material, the voltage-support structure being in contact with the second end of the electrode; and a drain contact coupled to the voltage-support structure . a field effect transistor having a gate terminal to turn on and off a channel region within a body region , the body region being disposed between first and second regions, the body region and the first and second regions being disposed within a layer of a first semiconductor material having a band-gap, the first region of the field effect transistor being coupled to a source contact; an electrode having first and second ends , the first end of the electrode being coupled to the second region of the field effect transistor; a voltage-support structure including a second semiconductor material having a band-gap that is larger than the band-gap of the first semiconductor material, the voltage-support structure being in contact with the second end of the electrode; and a drain contact coupled to the voltage-support structure .
A control apparatus for controlling one or a plurality of motors (522_1, 522_2, 522_3, 532), the control apparatus comprising: an instruction value output unit configured to output an instruction value for the one or plurality of motors for each control period (T1); and a command interpreting unit configured to sequentially interpret an application program including one or a plurality of commands defining a target trajectory and to generate an internal command that is necessary for outputting the instruction value for each control period that is executed by the instruction value output unit, wherein the command interpreting unit is configured to calculate a passage point on the target trajectory for each period set in advance in accordance with a command included in the application program and to generate the internal command in accordance with calculated passage points characterized in that the command interpreting unit is further configured to change the period with which the passage points are calculated to a length designated by a specific command in a case in which the specific command defined in advance is executed in the sequential interpretation of the application program. an instruction value output unit configured to output an instruction value for the one or plurality of motors for each control period (T1); and a command interpreting unit configured to sequentially interpret an application program including one or a plurality of commands defining a target trajectory and to generate an internal command that is necessary for outputting the instruction value for each control period that is executed by the instruction value output unit, wherein the command interpreting unit is configured to calculate a passage point on the target trajectory for each period set in advance in accordance with a command included in the application program and to generate the internal command in accordance with calculated passage points characterized in that the command interpreting unit is further configured to change the period with which the passage points are calculated to a length designated by a specific command in a case in which the specific command defined in advance is executed in the sequential interpretation of the application program.
An aerodynamic assembly for bicycle handlebars, the assembly including two separate extension devices forming a first left extension device and a second right extension device , characterized in that each of the two extension devices comprises: - a first part forming an armrest, able to be fastened on a transverse bar of a bicycle handlebar while extending longitudinally forward and including a longitudinal extension forming a free end portion, an upper surface of the first part with its longitudinal extension forming a receiving surface for a forearm portion of the cyclist; and - a second extension-forming part , able to be fixed, removably and in the extension of said first part , to said free end portion, the second extension-forming part being able to slide longitudinally relative to said longitudinal extension in order to allow an adjustment of a distance separating a free end of the second extension-forming part from the first armrest-forming part . - a first part forming an armrest, able to be fastened on a transverse bar of a bicycle handlebar while extending longitudinally forward and including a longitudinal extension forming a free end portion, an upper surface of the first part with its longitudinal extension forming a receiving surface for a forearm portion of the cyclist; and - a second extension-forming part , able to be fixed, removably and in the extension of said first part , to said free end portion, the second extension-forming part being able to slide longitudinally relative to said longitudinal extension in order to allow an adjustment of a distance separating a free end of the second extension-forming part from the first armrest-forming part .
An implantable medical device, comprising: a multi-band loop antenna ; implant electronics ; a near-field receiver circuit coupled to the loop antenna and the implant electronics and configured to receive, via the loop antenna , near-field signals from one or more devices positioned external to a body of a recipient and to provide the near-field signals to the implant electronics ; and a far-field receiver circuit coupled to the loop antenna and the implant electronics and configured to receive, via the loop antenna , far-field signals from at least one device positioned external to the body of the recipient and to provide the far-field signals to the implant electronics , characterized in that the near-field receiver circuit comprises a transformer and the far-field receiver circuit comprises an isolation coupler . a multi-band loop antenna ; implant electronics ; a near-field receiver circuit coupled to the loop antenna and the implant electronics and configured to receive, via the loop antenna , near-field signals from one or more devices positioned external to a body of a recipient and to provide the near-field signals to the implant electronics ; and a far-field receiver circuit coupled to the loop antenna and the implant electronics and configured to receive, via the loop antenna , far-field signals from at least one device positioned external to the body of the recipient and to provide the far-field signals to the implant electronics , characterized in that the near-field receiver circuit comprises a transformer and the far-field receiver circuit comprises an isolation coupler .
A flexible thrust washer member comprising: a body including: an annular skirt portion that defines a central aperture having an inner diameter (D308), the annular skirt portion also defining an outer diameter (D306); wherein the body has a conical configuration that defines a conical axis and a radial direction (R) and the outer diameter (D306) of the annular skirt portion is spaced away from the central aperture along the conical axis and along the radial direction, defining an axial dimension (AD306) and a radial dimension (RD306); and wherein the body defines at least two slits that separate the annular skirt portion into a plurality of fingers that are configured to resiliently bend when a load is applied to the fingers. a body including: an annular skirt portion that defines a central aperture having an inner diameter (D308), the annular skirt portion also defining an outer diameter (D306); wherein the body has a conical configuration that defines a conical axis and a radial direction (R) and the outer diameter (D306) of the annular skirt portion is spaced away from the central aperture along the conical axis and along the radial direction, defining an axial dimension (AD306) and a radial dimension (RD306); and an annular skirt portion that defines a central aperture having an inner diameter (D308), the annular skirt portion also defining an outer diameter (D306); wherein the body has a conical configuration that defines a conical axis and a radial direction (R) and the outer diameter (D306) of the annular skirt portion is spaced away from the central aperture along the conical axis and along the radial direction, defining an axial dimension (AD306) and a radial dimension (RD306); and wherein the body defines at least two slits that separate the annular skirt portion into a plurality of fingers that are configured to resiliently bend when a load is applied to the fingers.
A method for data transmission under a Long Term Evolution and New Radio, LTE-NR, Dual Connection, performed by a terminal device, the terminal device has a first channel for receiving Downlink, DL, data, the method comprising: generating , by the terminal device, reporting information according to a self-interference situation of the first channel, which comprises: determining, by the terminal device, at least one Modulation and Coding Scheme, MCS, for a network device according to the self-interference situation of the first channel, wherein the reporting information is used by the network device to determine scheduling information for the terminal device, and the self-interference situation comprises: interference of a channel, except the first channel, of the terminal device with the first channel; and transmitting , by the terminal device, the reporting information to the network device, which comprises: transmitting, by the terminal device, the at least one MCS to the network device. determining, by the terminal device, at least one Modulation and Coding Scheme, MCS, for a network device according to the self-interference situation of the first channel, wherein the reporting information is used by the network device to determine scheduling information for the terminal device, and the self-interference situation comprises: interference of a channel, except the first channel, of the terminal device with the first channel; and transmitting , by the terminal device, the reporting information to the network device, which comprises: transmitting, by the terminal device, the at least one MCS to the network device.
A method, comprising: transmitting, by a user equipment, uplink control information in at least one of multiple transmission opportunities scheduled by a network node, wherein the transmitting comprises transmitting, via a cell employing listen-before-talk procedure, a hybrid automatic repeat request acknowledgement/non-acknowledgement on an uplink control channel resource allocated by the network node, characterized in that said multiple transmission opportunities are scheduled for each hybrid automatic repeat request acknowledgement/non-acknowledgement on the control channel in multiple uplink subframes. transmitting, by a user equipment, uplink control information in at least one of multiple transmission opportunities scheduled by a network node, wherein the transmitting comprises transmitting, via a cell employing listen-before-talk procedure, a hybrid automatic repeat request acknowledgement/non-acknowledgement on an uplink control channel resource allocated by the network node, characterized in that said multiple transmission opportunities are scheduled for each hybrid automatic repeat request acknowledgement/non-acknowledgement on the control channel in multiple uplink subframes.
A method for manufacturing a recyclable flexible foam molded product comprising: providing a thermoplastic polymer precursor comprising at least one monomer derived from depolymerized post-consumer plastic; inserting a fluid into a barrel of a molding apparatus under temperature and pressure conditions to produce a super critical fluid; mixing the thermoplastic polymer and the super critical fluid to create a single phase solution; injecting the single phase solution into a mold of an injection molding machine wherein the mold is under gas counter pressure; foaming the SCF-impregnated single phase solution by controlling heat and temperature conditions within the mold. providing a thermoplastic polymer precursor comprising at least one monomer derived from depolymerized post-consumer plastic; inserting a fluid into a barrel of a molding apparatus under temperature and pressure conditions to produce a super critical fluid; mixing the thermoplastic polymer and the super critical fluid to create a single phase solution; injecting the single phase solution into a mold of an injection molding machine wherein the mold is under gas counter pressure; foaming the SCF-impregnated single phase solution by controlling heat and temperature conditions within the mold.
An axle assembly , comprising: a differential carrier comprising a first portion and a second portion ; said first portion including a first engagement surface , said second portion including a second engagement surface coupled with said first engagement surface , said differential carrier first and second portions defining a differential area and a clutch area ; said differential area and said clutch area substantially separated by a partition ; said differential carrier first engagement surface including a lubricant channel fluidly connecting said differential area with said clutch area , said lubricant channel divides into a first lubricant channel and a second lubricant channel , said first lubricant channel at least partially disposed above said clutch area , wherein said first lubricant channel includes a bend disposing said first lubricant channel at least partially in an outer wall of said differential carrier first portion , said second lubricant channel fluidly connecting said differential area to said clutch area , wherein said second lubricant channel extends at least partially in a downward diagonal direction through said partition to said clutch area of said differential carrier; characterized in that the differential carrier further comprises a substantially cylindrical bearing retainer disposed through said outer wall of said differential carrier, said bearing retainer extending into said clutch area , and said bearing retainer having an aperture therethrough, whereby said first lubricant channel is in fluid connection with said clutch assembly . a differential carrier comprising a first portion and a second portion ; said first portion including a first engagement surface , said second portion including a second engagement surface coupled with said first engagement surface , said differential carrier first and second portions defining a differential area and a clutch area ; said differential area and said clutch area substantially separated by a partition ; said differential carrier first engagement surface including a lubricant channel fluidly connecting said differential area with said clutch area , said lubricant channel divides into a first lubricant channel and a second lubricant channel , said first lubricant channel at least partially disposed above said clutch area , wherein said first lubricant channel includes a bend disposing said first lubricant channel at least partially in an outer wall of said differential carrier first portion , said second lubricant channel fluidly connecting said differential area to said clutch area , wherein said second lubricant channel extends at least partially in a downward diagonal direction through said partition to said clutch area of said differential carrier; characterized in that the differential carrier further comprises a substantially cylindrical bearing retainer disposed through said outer wall of said differential carrier, said bearing retainer extending into said clutch area , and said bearing retainer having an aperture therethrough, whereby said first lubricant channel is in fluid connection with said clutch assembly .
Garment , especially sports garment, comprising a substrate which covers a part of the body of the wearer of the garment , wherein the substrate is at least partially designed as an at least two-layer arrangement, wherein an inner layer is facing the body of the wearer and an outer layer is delimiting the outside of the garment , wherein the two layers form a pocket which is filled with a filling material and wherein the filling material are at least partially plastic particles which are arranged loosely in the pocket , characterized in that the plastic particles consist of expanded (foamed) plastic material of one or more of the group of thermoplastic polyolefin, thermoplastic polyurethane, thermoplastic elastomer and thermoplastic polyamide, wherein the extension of the plastic particles in the three spatial directions is between 1 mm and 5 mm, wherein the shape of the plastic particles is spherical or elliptical and wherein the pocket is filled with plastic particles and a wadding material.
Method of filling a heating facility with heating medium and/or of removing heating medium from the heating facility, the heating medium being conducted through an actuator (18; 47) of a ball valve, wherein by means of the ball valve for selectively opening, closing and/or controlling, intervention in a flow of the heating medium through the ball valve from an upstream feed line to a downstream drain line through a regulating channel (22; 45) takes place, wherein by means of an actuating element (12; 48) of the actuator (18; 47) within an actuating chamber for unambiguously moving the actuating element (12; 48), the regulating channel (22; 45) is enlarged and reduced in size, and wherein in the open state of an access channel (24; 44) of the ball valve, which can be closed and opened, the regulating channel (22; 45) is opened towards the environment along the actuator (18; 47); characterized in that by means of an exterior or interior thread of the ball valve, made of metal, an access line is tightly attached with the feed and drain lines already connected, so that with the access channel (24; 44) open, this access line is connected to the regulating channel (22; 48) so as to evacuate a pipe section attachable to the rear of the downstream drain line by opening an additional valve arranged at the actuator (18; 47).