mhurhangee/patent-ind-claim-en huggingface dataset:
A method for modifying a print job to be printed onto a plurality of sheets of a medium as part of creating a print product, comprising the steps of automatically: a) receiving (S10) print project data comprising a print job to be printed onto a plurality of individual sheets of a medium and further comprising process data indicating how the print job is to be processed for creating the print product; b) determining (S20), based on the print project data, a first intermediate state during the creating of the print product at which an intermediate product is to be cut in a manual cutting step; c) determining (S30), based on the print project data, a reference object and/or reference geometrical feature of the intermediate product in the first intermediate state; d) determining (S40), based on the print project data, a cut line (A-A, B-B, C-C, D-D) along which the intermediate product in the first intermediate state is to be cut in the manual cutting step; e) determining (S50), based on the print project data, a distance (dV, dX, dY, dZ) from the reference object or reference geometrical feature of the intermediate product in the first intermediate state to the determined cut line (A-A, B-B, C-C, D-D); f) determining (S60), based on the print project data, an indicator position comprised by the intermediate product in the first intermediate state but not comprised by the end product; g) modifying (S70) the print job such that a cut distance information item indicating the determined distance numerically is to be printed in the determined indicator position; and h) executing (S80) the modified print job. a) receiving (S10) print project data comprising a print job to be printed onto a plurality of individual sheets of a medium and further comprising process data indicating how the print job is to be processed for creating the print product; b) determining (S20), based on the print project data, a first intermediate state during the creating of the print product at which an intermediate product is to be cut in a manual cutting step; c) determining (S30), based on the print project data, a reference object and/or reference geometrical feature of the intermediate product in the first intermediate state; d) determining (S40), based on the print project data, a cut line (A-A, B-B, C-C, D-D) along which the intermediate product in the first intermediate state is to be cut in the manual cutting step; e) determining (S50), based on the print project data, a distance (dV, dX, dY, dZ) from the reference object or reference geometrical feature of the intermediate product in the first intermediate state to the determined cut line (A-A, B-B, C-C, D-D); f) determining (S60), based on the print project data, an indicator position comprised by the intermediate product in the first intermediate state but not comprised by the end product; g) modifying (S70) the print job such that a cut distance information item indicating the determined distance numerically is to be printed in the determined indicator position; and h) executing (S80) the modified print job.
Seat back of a seat provided with an immobilization device for a tray placed free to pivot on the back face of a seat back, the tray being designed for use by a person sitting on a seat behind the seat on which the tray is fitted, the immobilizing device being elastic to prevent extension of the tray , characterised in that the immobilization device of the tray has a resistance to stretching of which the capacity increases beyond a certain determined elongation of the device.
A vehicle including: a vehicle body frame ; an engine with a variable valve timing device , the engine supported by the vehicle body frame ; and a mounting structure of an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine , wherein the oil control valve unit is detachably mounted to an outer surface of the engine avoiding the vehicle body frame , wherein the vehicle body frame comprises a pair of right and left main frames extending rearward from a head pipe , and a pair of right and left down frames extending obliquely downward from the head pipe toward the rear, characterized in that , the oil control valve unit is detachably mounted to a side surface of the engine between the main frames and the down frames , and a mounting space of the oil control valve unit exists on a moving locus (L2) of the down frames upon mounting of the vehicle body frame to the engine . a vehicle body frame ; an engine with a variable valve timing device , the engine supported by the vehicle body frame ; and a mounting structure of an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine , wherein the oil control valve unit is detachably mounted to an outer surface of the engine avoiding the vehicle body frame , wherein the vehicle body frame comprises a pair of right and left main frames extending rearward from a head pipe , and a pair of right and left down frames extending obliquely downward from the head pipe toward the rear, characterized in that , the oil control valve unit is detachably mounted to a side surface of the engine between the main frames and the down frames , and a mounting space of the oil control valve unit exists on a moving locus (L2) of the down frames upon mounting of the vehicle body frame to the engine .
A method , performed in an electronic device , for determining data to be used in generating a sound detection model, the method comprising: receiving first data associated with a first sound sample; extracting a first acoustic feature from the first data; receiving second data associated with a second sound sample; extracting a second acoustic feature from the second data; determining whether the second acoustic feature is similar to the first acoustic feature; determining a signal-to-noise ratio, SNR, of the first sound sample; determining an SNR of the second sound sample; selecting one of the first and second sound samples in response to the SNR of the selected sound sample meeting an SNR threshold and the SNR of the non-selected sound sample not meeting the SNR threshold; generating the sound detection model based on the selected sound sample upon determining that the second acoustic feature is similar to the first acoustic feature; and after generating the sound detection model, adjusting the generated sound detection model using the non-selected sound sample. receiving first data associated with a first sound sample; extracting a first acoustic feature from the first data; receiving second data associated with a second sound sample; extracting a second acoustic feature from the second data; determining whether the second acoustic feature is similar to the first acoustic feature; determining a signal-to-noise ratio, SNR, of the first sound sample; determining an SNR of the second sound sample; selecting one of the first and second sound samples in response to the SNR of the selected sound sample meeting an SNR threshold and the SNR of the non-selected sound sample not meeting the SNR threshold; generating the sound detection model based on the selected sound sample upon determining that the second acoustic feature is similar to the first acoustic feature; and after generating the sound detection model, adjusting the generated sound detection model using the non-selected sound sample.
A recombinant adenovirus comprising: a) a polynucleotide which encodes a polypeptide having the amino acid sequence according to SEQ ID NO: 1 and b) a polynucleotide which encodes a polypeptide having the amino acid sequence according to SEQ ID NO: 3 and c) a polynucleotide which encodes a polypeptide having the amino acid sequence according to SEQ ID NO: 5; wherein the adenovirus comprises a nucleic acid sequence encoding a Lyssavirus antigen, wherein the nucleic acid sequence is operatively linked to one or more sequences which direct expression of said Lyssavirus antigen in a host cell; wherein the nucleic acid sequence encoding a Lyssavirus antigen encodes an antigen derived from the rabies viral glycoprotein (G). a) a polynucleotide which encodes a polypeptide having the amino acid sequence according to SEQ ID NO: 1 and b) a polynucleotide which encodes a polypeptide having the amino acid sequence according to SEQ ID NO: 3 and c) a polynucleotide which encodes a polypeptide having the amino acid sequence according to SEQ ID NO: 5; wherein the adenovirus comprises a nucleic acid sequence encoding a Lyssavirus antigen, wherein the nucleic acid sequence is operatively linked to one or more sequences which direct expression of said Lyssavirus antigen in a host cell; wherein the nucleic acid sequence encoding a Lyssavirus antigen encodes an antigen derived from the rabies viral glycoprotein (G).
A surgical robot for use in endoscopic surgery, the surgical robot comprising: a position information calculator configured to calculate information relating to a distal end position (St) of a treatment instrument used in endoscopic surgery, and information relating to a distal end position of an endoscope ; a first display section configured to display a relative positional relationship between the distal end of the treatment instrument and the distal end of the endoscope by using a calculation result obtained from the position information calculator; and a second display section configured to display an image captured by the endoscope, characterized in that the first display section is configured to display a circular protractor centered on the distal end position of the endoscope , a center of the circular protractor coinciding with a center of a display screen of the first display section, together with the positional relationship. a position information calculator configured to calculate information relating to a distal end position (St) of a treatment instrument used in endoscopic surgery, and information relating to a distal end position of an endoscope ; a first display section configured to display a relative positional relationship between the distal end of the treatment instrument and the distal end of the endoscope by using a calculation result obtained from the position information calculator; and a second display section configured to display an image captured by the endoscope, characterized in that the first display section is configured to display a circular protractor centered on the distal end position of the endoscope , a center of the circular protractor coinciding with a center of a display screen of the first display section, together with the positional relationship.
A gas turbine engine comprising: a compressor delivering air into a combustion section , said combustion section and said compressor being housed in a housing ; and an air supply system communicating through said housing to deliver air from a location between an upstream end of said compressor and an upstream end of said combustion section , said air supply system having a duct with an inlet end and an outlet end , said duct provided with a central insert at the inlet end , and said central insert ending within said duct upstream of said outlet end , characterised in that : said central insert provides a venturi effect by reducing the cross-sectional flow between the central insert and an inner wall of the duct at the upstream end , and said central insert and duct providing increased cross-sectional flow areas at downstream locations; a diffuser is positioned downstream of said compressor , said diffuser having an outer shroud and an inner shroud with intermediate vanes ; said outer shroud ends at a location upstream of the downstream end of said inner shroud at locations circumferentially aligned with said inlet end ; said outer shroud only ends at the upstream location at circumferential locations associated with said inlet end , but extends further downstream at other locations; and a plurality of insert holders center said central insert within said duct . a compressor delivering air into a combustion section , said combustion section and said compressor being housed in a housing ; and an air supply system communicating through said housing to deliver air from a location between an upstream end of said compressor and an upstream end of said combustion section , said air supply system having a duct with an inlet end and an outlet end , said duct provided with a central insert at the inlet end , and said central insert ending within said duct upstream of said outlet end , said central insert provides a venturi effect by reducing the cross-sectional flow between the central insert and an inner wall of the duct at the upstream end , and said central insert and duct providing increased cross-sectional flow areas at downstream locations; a diffuser is positioned downstream of said compressor , said diffuser having an outer shroud and an inner shroud with intermediate vanes ; said outer shroud ends at a location upstream of the downstream end of said inner shroud at locations circumferentially aligned with said inlet end ; said outer shroud only ends at the upstream location at circumferential locations associated with said inlet end , but extends further downstream at other locations; and a plurality of insert holders center said central insert within said duct .
A device for loading or unloading an object, preferably a boat, above or on top of a vehicle, said device comprising: - a support for fixing the device to a surface of the vehicle, said fixing support comprising at least one first fixing suction cup and at least one contact means ; - a telescopic arm having one end integral with the fixing support the other end being deployable, - a guide of said object, integral with the deployable end of the telescopic arm , the guide including at least one first guide surface, characterised in that said surface of the vehicle extends in a vertical direction relative to the normal position of the stationary vehicle, said guide being pivotably mounted with respect to said fixing support, said device comprising a mechanism for adjusting the direction of inclination of the telescopic arm relative to the fixing support . - a support for fixing the device to a surface of the vehicle, said fixing support comprising at least one first fixing suction cup and at least one contact means ; - a telescopic arm having one end integral with the fixing support the other end being deployable, - a guide of said object, integral with the deployable end of the telescopic arm , the guide including at least one first guide surface, characterised in that said surface of the vehicle extends in a vertical direction relative to the normal position of the stationary vehicle, said guide being pivotably mounted with respect to said fixing support, said device comprising a mechanism for adjusting the direction of inclination of the telescopic arm relative to the fixing support .
A resource allocation method performed by a macro base station in a heterogeneous network system, the method comprising: determining a ratio of one or more almost blank subframes, ABSs, to one or more non-ABSs; generating an ABS pattern based on the determined ratio, a type of first data to be transmitted by the macro base station, and a type of second data to be transmitted by a pico base station; and performing data communication using radio resources based on the ABS pattern, wherein a subframe, in which a system information block 1, SIB-1, is to be transmitted by the macro base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a physical hybrid automatic repeat request, HARQ, indicator channel, PHICH corresponding to a physical downlink control channel, PDCCH, is to be transmitted by the pico base station to a terminal served by the pico base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a random access response, RAR, message for accepting access of a terminal is to be transmitted by the pico base station, is determined as an ABS in the generation of the ABS pattern, and wherein a subframe, in which a paging message is to be transmitted by the macro base station, is determined as a non-ABS in the generation of the ABS pattern. determining a ratio of one or more almost blank subframes, ABSs, to one or more non-ABSs; generating an ABS pattern based on the determined ratio, a type of first data to be transmitted by the macro base station, and a type of second data to be transmitted by a pico base station; and performing data communication using radio resources based on the ABS pattern, wherein a subframe, in which a system information block 1, SIB-1, is to be transmitted by the macro base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a physical hybrid automatic repeat request, HARQ, indicator channel, PHICH corresponding to a physical downlink control channel, PDCCH, is to be transmitted by the pico base station to a terminal served by the pico base station, is determined as an ABS in the generation of the ABS pattern, wherein a subframe, in which a random access response, RAR, message for accepting access of a terminal is to be transmitted by the pico base station, is determined as an ABS in the generation of the ABS pattern, and wherein a subframe, in which a paging message is to be transmitted by the macro base station, is determined as a non-ABS in the generation of the ABS pattern.
Process for the dehydrogenation of ethanol to give acetaldehyde, comprising a stage of dehydrogenation of a feedstock comprising ethanol, said dehydrogenation stage employing a reaction section comprising at least one multitubular reactor which comprises one or a plurality of tubes and a shell, said tube(s) each comprising at least one fixed bed of at least one dehydrogenation catalyst, said feedstock feeding said tube(s) in gaseous form, at an inlet temperature of said feedstock of greater than or equal to 240°C, at an inlet pressure of said feedstock of between 0.1 and 1.0 MPa, and at a weight hourly space velocity (WWH) of the feedstock at the inlet of between 2 and 15 h -1 , a heat-transfer fluid circulating in said shell so that said heat-transfer fluid is introduced into said shell in gaseous form and is, at the shell outlet, at least partly in liquid form, said heat-transfer fluid being introduced into the shell at a flow rate such that the ratio of the flow rate by weight of said heat-transfer fluid at the shell inlet, with respect to the flow rate by weight of said feedstock at the inlet of the tube(s), is greater than or equal to 1.0, said heat-transfer fluid being introduced into the shell at an inlet temperature of the heat-transfer fluid of greater than or equal to 260°C and less than or equal to 400°C, and at an inlet pressure of the heat-transfer fluid of greater than or equal to 0.10 MPa and less than or equal to 1.10 MPa; said process producing a dehydrogenation effluent comprising at least acetaldehyde, hydrogen and unconverted ethanol. said tube(s) each comprising at least one fixed bed of at least one dehydrogenation catalyst, said feedstock feeding said tube(s) in gaseous form, at an inlet temperature of said feedstock of greater than or equal to 240°C, at an inlet pressure of said feedstock of between 0.1 and 1.0 MPa, and at a weight hourly space velocity (WWH) of the feedstock at the inlet of between 2 and 15 h -1 , a heat-transfer fluid circulating in said shell so that said heat-transfer fluid is introduced into said shell in gaseous form and is, at the shell outlet, at least partly in liquid form, said heat-transfer fluid being introduced into the shell at a flow rate such that the ratio of the flow rate by weight of said heat-transfer fluid at the shell inlet, with respect to the flow rate by weight of said feedstock at the inlet of the tube(s), is greater than or equal to 1.0, said heat-transfer fluid being introduced into the shell at an inlet temperature of the heat-transfer fluid of greater than or equal to 260°C and less than or equal to 400°C, and at an inlet pressure of the heat-transfer fluid of greater than or equal to 0.10 MPa and less than or equal to 1.10 MPa; said process producing a dehydrogenation effluent comprising at least acetaldehyde, hydrogen and unconverted ethanol.
A method for manufacturing a semiconductor device , the method comprising: fabricating a semiconductor element on a semiconductor substrate; joining a surface of the semiconductor substrate to a support member , the surface being on a side where the semiconductor element is fabricated; and polishing, after the surface of the semiconductor substrate is joined to the support member , a surface on an opposite side of the surface of the semiconductor substrate where the semiconductor element is fabricated to reduce a thickness of the semiconductor substrate, wherein the support member is mounted on a circuit board , and a conductor for electrically connecting the semiconductor element and the circuit board vertically penetrates the support member before the surface of the semiconductor substrate is joined to the support member . fabricating a semiconductor element on a semiconductor substrate; joining a surface of the semiconductor substrate to a support member , the surface being on a side where the semiconductor element is fabricated; and polishing, after the surface of the semiconductor substrate is joined to the support member , a surface on an opposite side of the surface of the semiconductor substrate where the semiconductor element is fabricated to reduce a thickness of the semiconductor substrate, wherein the support member is mounted on a circuit board , and a conductor for electrically connecting the semiconductor element and the circuit board vertically penetrates the support member before the surface of the semiconductor substrate is joined to the support member .
An engine for a heat pump, comprising: an engine temperature specifying unit configured to specify an engine temperature; and a control device configured to execute engine control based on the engine temperature specified by the engine temperature specifying unit, wherein an operation of the engine is continued, in a case where the control device receives a stop signal instructing stopping of the engine and the control device determines a status is not that i) the engine temperature is a predetermined temperature or higher, and ii) a degree of superheat of refrigerant in a line through which the refrigerant from an accumulator returns to a compressor is a predetermined degree of superheat or higher. an engine temperature specifying unit configured to specify an engine temperature; and a control device configured to execute engine control based on the engine temperature specified by the engine temperature specifying unit, wherein an operation of the engine is continued, in a case where the control device receives a stop signal instructing stopping of the engine and the control device determines a status is not that i) the engine temperature is a predetermined temperature or higher, and ii) a degree of superheat of refrigerant in a line through which the refrigerant from an accumulator returns to a compressor is a predetermined degree of superheat or higher. i) the engine temperature is a predetermined temperature or higher, and ii) a degree of superheat of refrigerant in a line through which the refrigerant from an accumulator returns to a compressor is a predetermined degree of superheat or higher.