mhurhangee/patent-ind-claim-en huggingface dataset:
A voice recognition device comprising: a voice input unit into which a voice signal is input; a voice analyzer configured to analyze whether a specific characteristic component is included in the voice signal input into the voice input unit ; a voice recognizer configured to recognize a voice represented by the voice signal input into the voice input unit ; a response instruction unit configured to instruct a response to a response operation unit that operates in response to the voice recognized by the voice recognizer ; a controller configured to control the voice recognizer not to execute voice recognition processing by the voice recognizer or to control the response instruction unit not to instruct the response operation unit about an instruction content by the voice recognized by the voice recognizer , when the voice analyzer analyzes that the voice signal includes the specific characteristic component; and a reproducing device detection unit configured to detect presence of a content reproducing device including a voice output unit , wherein the voice analyzer analyzes whether the voice signal input into the voice input unit includes the specific characteristic component when the reproducing device detection unit detects the presence of the content reproducing device . a voice input unit into which a voice signal is input; a voice analyzer configured to analyze whether a specific characteristic component is included in the voice signal input into the voice input unit ; a voice recognizer configured to recognize a voice represented by the voice signal input into the voice input unit ; a response instruction unit configured to instruct a response to a response operation unit that operates in response to the voice recognized by the voice recognizer ; a controller configured to control the voice recognizer not to execute voice recognition processing by the voice recognizer or to control the response instruction unit not to instruct the response operation unit about an instruction content by the voice recognized by the voice recognizer , when the voice analyzer analyzes that the voice signal includes the specific characteristic component; and a reproducing device detection unit configured to detect presence of a content reproducing device including a voice output unit , wherein the voice analyzer analyzes whether the voice signal input into the voice input unit includes the specific characteristic component when the reproducing device detection unit detects the presence of the content reproducing device .
A drug delivery molecule, comprising: a ligand that targets c-Met on the surface of a cancer cell; a membrane penetration domain; and a payload binding domain. a ligand that targets c-Met on the surface of a cancer cell; a membrane penetration domain; and a payload binding domain.
A method of operating a terminal by using a Mobile Device Management, MDM, solution, the method comprising: installing (S501) an application; receiving a license key and a security policy established in an MDM server , from the MDM server configured to receive the license key from an Enterprise License Management, ELM, server , wherein the license key is generated by the ELM server ; restricting at least one Application Program Interface, API, permission based on the received security policy; inquiring (S507) the ELM server as to whether the license key is valid for registering the terminal in the ELM server; receiving (S509) a Right Object ,R/O, that is mapped onto the license key and comprises a permission list from the ELM server , if the license key is valid; adjusting (S513) the restricted at least one API permission based on the permission list comprised in the received R/O; and storing (S515) the adjusted at least one API permission, installing (S501) an application; receiving a license key and a security policy established in an MDM server , from the MDM server configured to receive the license key from an Enterprise License Management, ELM, server , wherein the license key is generated by the ELM server ; restricting at least one Application Program Interface, API, permission based on the received security policy; inquiring (S507) the ELM server as to whether the license key is valid for registering the terminal in the ELM server; receiving (S509) a Right Object ,R/O, that is mapped onto the license key and comprises a permission list from the ELM server , if the license key is valid; adjusting (S513) the restricted at least one API permission based on the permission list comprised in the received R/O; and storing (S515) the adjusted at least one API permission,
A method for transmitting uplink control information to a base station by a terminal supporting a short transmission time interval, TTI, length in a wireless communication system, the method comprising: receiving an enable or disable configuration of frequency hopping for the uplink control information; when the frequency hopping is enabled, mapping the uplink control information to a short physical uplink control channel, SPUCCH, resource region using the frequency hopping; and transmitting the uplink control information on the SPUCCH resource region, wherein the frequency hopping is applied between first three symbols and the other four symbols in a first slot, wherein a power transient period of the first slot is configured to be positioned in the other four symbols in the first slot, wherein the frequency hopping is applied between first four symbols and the other three symbols in a second slot, and wherein a power transient period of the second slot is configured to be positioned in the first four symbols in the second slot. receiving an enable or disable configuration of frequency hopping for the uplink control information; when the frequency hopping is enabled, mapping the uplink control information to a short physical uplink control channel, SPUCCH, resource region using the frequency hopping; and transmitting the uplink control information on the SPUCCH resource region, wherein the frequency hopping is applied between first three symbols and the other four symbols in a first slot, wherein a power transient period of the first slot is configured to be positioned in the other four symbols in the first slot, wherein the frequency hopping is applied between first four symbols and the other three symbols in a second slot, and wherein a power transient period of the second slot is configured to be positioned in the first four symbols in the second slot.
A plastic card printing method, comprising: inputting a plastic card having a front surface and a back surface into a thermal transfer print station of a plastic card printing system , the thermal transfer print station is configured for thermal transfer printing using a thermal transfer print ribbon having radiation curable ink; printing onto at least one of the front or back surface by transferring a portion of the radiation curable ink from the thermal transfer print ribbon onto the front or back surface ; after printing onto the front or back surface , mechanically transporting the plastic card to a radiation curing station ; characterised in that the method further comprising applying radiation to the printed radiation curable ink in the radiation curing station to cure the radiation curable ink printed on the front or back surface so that the printing has an abrasion resistance value of at least about 400 cycles; and outputting the plastic card from the plastic card printing system without applying a protective laminate or coating over the printing. inputting a plastic card having a front surface and a back surface into a thermal transfer print station of a plastic card printing system , the thermal transfer print station is configured for thermal transfer printing using a thermal transfer print ribbon having radiation curable ink; printing onto at least one of the front or back surface by transferring a portion of the radiation curable ink from the thermal transfer print ribbon onto the front or back surface ; after printing onto the front or back surface , mechanically transporting the plastic card to a radiation curing station ; characterised in that the method further comprising applying radiation to the printed radiation curable ink in the radiation curing station to cure the radiation curable ink printed on the front or back surface so that the printing has an abrasion resistance value of at least about 400 cycles; and outputting the plastic card from the plastic card printing system without applying a protective laminate or coating over the printing.
A cyclic process for separating CO 2 from a gas stream, which process comprises contacting the gas stream with an absorbent comprising a nucleophilic primary or secondary alkanolamine CO 2 sorbent and a non-nucleophilic base, more strongly basic than said alkanolamine in terms of pKa, in a non-aqueous liquid solvent, to form a reaction product by carbonation of oxygen(s) on the hydroxyl group(s) and carboxylation of nitrogen(s) of the amine group(s) of the alkanolamine so as to sorb CO 2 in the sorbent.
A method of transferring an avatar between virtual worlds systems, the method being performed on a virtual worlds server , the method comprising: receiving, at a virtual worlds server associated with a first virtual environment including one or more processors , a request for a transfer of an avatar from a virtual worlds server associated with a second virtual environment; determining authorization rights of the avatar to access the first virtual environment; completing a transfer protocol with a second virtual worlds server associated with the second virtual environment; making a database entry in the virtual worlds server associated with the second virtual environment indicating that the avatar has been "checked out" from the second virtual environment; automatically transforming the avatar from one type appropriate to the second virtual environment to another type appropriate to the first virtual environment, based on one or more conversion rules associated with the first virtual environment; where the transformation comprises changing at least one characteristic of the avatar that is specific to the second environment into a different characteristic that is specific to the first environment, wherein changing the at least one characteristic of the avatar is based on a previously stored local state of the avatar in the first virtual environment; and engaging the avatar for interaction with one or more areas within the first virtual environment. receiving, at a virtual worlds server associated with a first virtual environment including one or more processors , a request for a transfer of an avatar from a virtual worlds server associated with a second virtual environment; determining authorization rights of the avatar to access the first virtual environment; completing a transfer protocol with a second virtual worlds server associated with the second virtual environment; making a database entry in the virtual worlds server associated with the second virtual environment indicating that the avatar has been "checked out" from the second virtual environment; automatically transforming the avatar from one type appropriate to the second virtual environment to another type appropriate to the first virtual environment, based on one or more conversion rules associated with the first virtual environment; where the transformation comprises changing at least one characteristic of the avatar that is specific to the second environment into a different characteristic that is specific to the first environment, wherein changing the at least one characteristic of the avatar is based on a previously stored local state of the avatar in the first virtual environment; and engaging the avatar for interaction with one or more areas within the first virtual environment.
A downhole treatment apparatus comprising: a first conduit configured to transport a first fluid from a first fluid source through a first enclosed channel to a first outlet ; a second conduit configured to transport a second fluid from a second fluid source through a second enclosed channel to a second outlet ; one or more downhole sensors ; a data processing system comprising a treatment procedure database , wherein the data processing system is configured to: select, via the treatment procedure database, a treatment procedure from a plurality of treatment procedures, wherein the selected treatment procedure includes relative fluid concentrations and reaction periods; request downhole parameters from said one or more down hole sensors; and generate one or more fluid component transport and mixing timings based, at least in part, on the downhole parameters and reaction periods; and a mixing applicator that includes the first outlet positioned to provide a discharge path for the first fluid that at least partially intersects a flow path of the second fluid within a confluence region within or external to the second conduit a first conduit configured to transport a first fluid from a first fluid source through a first enclosed channel to a first outlet ; a second conduit configured to transport a second fluid from a second fluid source through a second enclosed channel to a second outlet ; one or more downhole sensors ; a data processing system comprising a treatment procedure database , wherein the data processing system is configured to: select, via the treatment procedure database, a treatment procedure from a plurality of treatment procedures, wherein the selected treatment procedure includes relative fluid concentrations and reaction periods; request downhole parameters from said one or more down hole sensors; and generate one or more fluid component transport and mixing timings based, at least in part, on the downhole parameters and reaction periods; and select, via the treatment procedure database, a treatment procedure from a plurality of treatment procedures, wherein the selected treatment procedure includes relative fluid concentrations and reaction periods; request downhole parameters from said one or more down hole sensors; and generate one or more fluid component transport and mixing timings based, at least in part, on the downhole parameters and reaction periods; and a mixing applicator that includes the first outlet positioned to provide a discharge path for the first fluid that at least partially intersects a flow path of the second fluid within a confluence region within or external to the second conduit
Process for producing protein mass from insect larvae comprising cleaning insect larvae, subjecting the insect larvae to pulsed electric fields and comminuting the insect larvae to produce an insect mass and subsequently fractionating the insect mass into a solid and at least one liquid phase, followed by drying the solid to produce the protein mass.
A wall shelf system comprising: a shelf bracket having a rear end for fastening to a wall rail , having a front end and having at least one first side wall ; and a guide rail for a shelf element which can be pulled out, said guide rail having a rear end , a front end and at least one side wall , wherein coupling means are provided at the shelf bracket ; and wherein coupling means corresponding to the coupling means of the shelf bracket are provided at the guide rail to releasably fasten the guide rail to the shelf bracket ; wherein the coupling means enable a push-lock connection between the guide rail and the shelf bracket ; and wherein the coupling means of the shelf bracket comprise two cut-outs , with one of the cut-outs being formed by a hole in the side wall of the shelf bracket and with the other cut-out being formed by a slit, which extends from an upper margin of the shelf bracket into the shelf bracket , and the coupling means of the guide rail comprise at least two hook sections corresponding to the cut-outs. a shelf bracket having a rear end for fastening to a wall rail , having a front end and having at least one first side wall ; and a guide rail for a shelf element which can be pulled out, said guide rail having a rear end , a front end and at least one side wall , wherein coupling means are provided at the shelf bracket ; and wherein coupling means corresponding to the coupling means of the shelf bracket are provided at the guide rail to releasably fasten the guide rail to the shelf bracket ; wherein the coupling means enable a push-lock connection between the guide rail and the shelf bracket ; and wherein the coupling means of the shelf bracket comprise two cut-outs , with one of the cut-outs being formed by a hole in the side wall of the shelf bracket and with the other cut-out being formed by a slit, which extends from an upper margin of the shelf bracket into the shelf bracket , and the coupling means of the guide rail comprise at least two hook sections corresponding to the cut-outs.
A method of producing a memory device, comprising: forming an array of transistors (126, 130; 138); forming a plurality of subgroups of transistors from the transistors among the array of transistors by connecting the transistors within respective subgroups of the plurality of subgroups of transistors with respective local data lines (112:112A-112D"; 146), wherein the local data lines (112:112A-112D"; 146) are staggered; forming an array of storage devices (128; 154), wherein each storage device (128; 154) among the array of storage devices (128; 154) is connected to a respective transistor among the array of transistors; forming a plurality of word lines , wherein a first word line of the plurality of word lines is coupled to both a first and a second subgroup of the plurality of subgroups of transistors; and connecting each global data line (114:114A-114D), among a plurality of global data lines, to subgroups of the plurality of subgroups of transistors by connecting each global data line (114:114A-114D) to first local data lines (112:112A-112A"; 146) of the local data lines (112:112A-112D"; 146; 218) by first subgroup access devices (126; 150) via first storage devices (128; 154) among the array of storage devices (128; 154) that are each coupled to a respective subgroup access device of the first subgroup access devices (126; 150) to form a contact to the respective subgroup access device (126; 150), wherein each global data line (114; 240; 250) is connected to only one subgroup of the plurality of subgroups of transistors sharing a common word line of the plurality of word lines . forming an array of transistors (126, 130; 138); forming a plurality of subgroups of transistors from the transistors among the array of transistors by connecting the transistors within respective subgroups of the plurality of subgroups of transistors with respective local data lines (112:112A-112D"; 146), wherein the local data lines (112:112A-112D"; 146) are staggered; forming an array of storage devices (128; 154), wherein each storage device (128; 154) among the array of storage devices (128; 154) is connected to a respective transistor among the array of transistors; forming a plurality of word lines , wherein a first word line of the plurality of word lines is coupled to both a first and a second subgroup of the plurality of subgroups of transistors; and connecting each global data line (114:114A-114D), among a plurality of global data lines, to subgroups of the plurality of subgroups of transistors by connecting each global data line (114:114A-114D) to first local data lines (112:112A-112A"; 146) of the local data lines (112:112A-112D"; 146; 218) by first subgroup access devices (126; 150) via first storage devices (128; 154) among the array of storage devices (128; 154) that are each coupled to a respective subgroup access device of the first subgroup access devices (126; 150) to form a contact to the respective subgroup access device (126; 150), wherein each global data line (114; 240; 250) is connected to only one subgroup of the plurality of subgroups of transistors sharing a common word line of the plurality of word lines .
A thrust reverser arrangement comprising: an inner fixed structure (IFS) ; a track beam ; a translating sleeve slideably mounted to the track beam ; a bypass duct (B) for bypass air from a gas turbine engine fan, the bypass duct defined between the IFS and the translating sleeve ; an acoustic treated fairing attached to the translating sleeve ; and a primary slider coupled to the translating sleeve , whereby the translating sleeve is slideably mounted to the track beam ; wherein the acoustic treated fairing is configured to attenuate fan noise generated during operation of the gas turbine engine; and characterised in that the acoustic treated fairing at least partially encloses the primary slider . an inner fixed structure (IFS) ; a track beam ; a translating sleeve slideably mounted to the track beam ; a bypass duct (B) for bypass air from a gas turbine engine fan, the bypass duct defined between the IFS and the translating sleeve ; an acoustic treated fairing attached to the translating sleeve ; and a primary slider coupled to the translating sleeve , whereby the translating sleeve is slideably mounted to the track beam ; wherein the acoustic treated fairing is configured to attenuate fan noise generated during operation of the gas turbine engine; and characterised in that the acoustic treated fairing at least partially encloses the primary slider .
A method for measuring characteristics of a transmitter unit of a device under test , with the following steps: a) Providing a signal generator comprising a baseband processing unit having at least a digital pre-distortion sub-unit , b) Providing a device under test having a transmitter unit , c) Providing a measuring unit , d) Connecting said signal generator and said device under test with each other via an interface , e) Generating at least one input signal by using said signal generator , said input signal is forwarded to said device under test , f) Measuring an output signal of said device under test by using said measuring unit , characterized by : g) Determining a first pre-distortion parameter for an increasing input amplitude by using said digital pre-distortion sub-unit , and h) Determining a second pre-distortion parameter different to the first pre-distortion parameter for a decreasing input amplitude by using said digital pre-distortion sub-unit , said first and second pre-distortion parameters being determined such that said output signal has a high fidelity, wherein said baseband processing unit divides a composition of said output signal into two parts wherein a first part relates to an increasing input amplitude for said first pre-distortion parameter and a second part relates to a decreasing input amplitude for said second pre-distortion parameter. a) Providing a signal generator comprising a baseband processing unit having at least a digital pre-distortion sub-unit , b) Providing a device under test having a transmitter unit , c) Providing a measuring unit , d) Connecting said signal generator and said device under test with each other via an interface , e) Generating at least one input signal by using said signal generator , said input signal is forwarded to said device under test , f) Measuring an output signal of said device under test by using said measuring unit , g) Determining a first pre-distortion parameter for an increasing input amplitude by using said digital pre-distortion sub-unit , and h) Determining a second pre-distortion parameter different to the first pre-distortion parameter for a decreasing input amplitude by using said digital pre-distortion sub-unit , said first and second pre-distortion parameters being determined such that said output signal has a high fidelity,