mhurhangee/patent-ind-claim-en huggingface dataset:
Method for constructing a system, wherein the system comprises a planetary gear unit and a working machine, wherein the working machine comprises a press, wherein the planetary gear unit comprises a first module and a second module, wherein the first module comprises several planetary gear wheels , several planetary shafts and at least one planetary carrier , wherein the planetary gear unit comprises a housing, wherein the planetary carrier is arranged at least partially, preferably predominantly, externally to the housing, wherein the working machine comprises a working machine shaft , wherein the second module comprises a ring gear or a sun wheel, characterised in that the method comprises the following steps: - detachable fastening of the first module to the working machine shaft, wherein the planetary carrier is fastened in a non-positive or positive locking manner to the working machine shaft; and thereafter - detachable fastening of the first module to the second module. - detachable fastening of the first module to the working machine shaft, wherein the planetary carrier is fastened in a non-positive or positive locking manner to the working machine shaft; and thereafter - detachable fastening of the first module to the second module.
A flour specialized for diabetic nutrition meals, the flour comprising cereal flour as a base material and further comprising defatted soya vegetable protein powder and dietary fiber powder isolated from soybean tissues, wherein the content of protein is 20-26 wt%, the content of dietary fiber is 4-10 wt%, the content of carbohydrate is 65 wt% or less, and the content of fat is 4 wt% or less based on dry basis of the flour.
A method of manufacturing a Josephson junction, the method comprising: forming a first stack on a substrate ; the first stack comprising a first electrode layer , a dielectric layer and a second electrode layer , the first stack defining at least an upper surface , on the opposite face of the first stack to the substrate, and two side surfaces adjacent to the substrate and the upper surface forming a trench in the stack via a first opening in a first resist , the trench extending across the full width of the stack and extending across the full depth of the second electrode layer and the dielectric layer; and forming a tunnel in the stack via a second opening and a third opening in the first resist or in a second resist , the second and third openings being formed by multi-photon lithography, the tunnel extending across the full width of the stack from the second opening to the third opening and extending across the full depth of the first electrode layer and the dielectric layer. forming a trench in the stack via a first opening in a first resist , the trench extending across the full width of the stack and extending across the full depth of the second electrode layer and the dielectric layer; and forming a tunnel in the stack via a second opening and a third opening in the first resist or in a second resist , the second and third openings being formed by multi-photon lithography, the tunnel extending across the full width of the stack from the second opening to the third opening and extending across the full depth of the first electrode layer and the dielectric layer.
A liquid ejection head comprising: a flow path member comprising a plurality of ejection holes , a plurality of pressurizing chambers respectively connected to the plurality of ejection holes , a plurality of first flow paths respectively connected to the plurality of pressurizing chambers , a plurality of second flow paths respectively connected to the plurality of pressurizing chambers , and a third flow path connected in common to the plurality of first flow paths and the plurality of second flow paths ; and a plurality of pressurizing units for respectively pressurizing a liquid inside the plurality of pressurizing chambers , characterized in that a decimal place value of T1/T0 is 1/8 to 7/8, where T0 denotes a resonance period of one of the plurality of pressurizing chambers and T1 denotes a time required for a pressure wave to circulate once around an annular flow path sequentially passing through the one of the plurality of pressurizing chambers , one of the plurality of first flow paths , the third flow path , and one of the plurality of second flow paths . a flow path member comprising a plurality of ejection holes , a plurality of pressurizing chambers respectively connected to the plurality of ejection holes , a plurality of first flow paths respectively connected to the plurality of pressurizing chambers , a plurality of second flow paths respectively connected to the plurality of pressurizing chambers , and a third flow path connected in common to the plurality of first flow paths and the plurality of second flow paths ; and a plurality of ejection holes , a plurality of pressurizing chambers respectively connected to the plurality of ejection holes , a plurality of first flow paths respectively connected to the plurality of pressurizing chambers , a plurality of second flow paths respectively connected to the plurality of pressurizing chambers , and a third flow path connected in common to the plurality of first flow paths and the plurality of second flow paths ; and a plurality of pressurizing units for respectively pressurizing a liquid inside the plurality of pressurizing chambers , characterized in that a decimal place value of T1/T0 is 1/8 to 7/8, where T0 denotes a resonance period of one of the plurality of pressurizing chambers and T1 denotes a time required for a pressure wave to circulate once around an annular flow path sequentially passing through the one of the plurality of pressurizing chambers , one of the plurality of first flow paths , the third flow path , and one of the plurality of second flow paths .
A printer comprising: a print unit that prints an image on a medium; a display unit ; a display control unit that displays a printing target image (Im) on the display unit ; a print instruction unit that transmits an instruction to print the printing target image (Im) being displayed on the display unit ; and a print control unit that causes the print unit to print the printing target image being displayed on the display unit in a case where the instruction to print the printing target image is received from the print instruction unit, characterised in that the display control unit displays an imaging image (Im1) of the printing target image such that the imaging image (Im1) overlaps printing target image being displayed (Im) on the display unit , and in a case where the instruction to print the image is received from the print instruction unit, moves the imaging image (Im1) along an ejection direction (f) of the medium, to remove the imaging image (Im1) from a screen of the display unit , and gradually displays the printing target image being displayed (Im) hidden under the imaging image (Im1) along with the movement of the imaging image (Im1) a print unit that prints an image on a medium; a display unit ; a display control unit that displays a printing target image (Im) on the display unit ; a print instruction unit that transmits an instruction to print the printing target image (Im) being displayed on the display unit ; and a print control unit that causes the print unit to print the printing target image being displayed on the display unit in a case where the instruction to print the printing target image is received from the print instruction unit, characterised in that the display control unit displays an imaging image (Im1) of the printing target image such that the imaging image (Im1) overlaps printing target image being displayed (Im) on the display unit , and in a case where the instruction to print the image is received from the print instruction unit, moves the imaging image (Im1) along an ejection direction (f) of the medium, to remove the imaging image (Im1) from a screen of the display unit , and gradually displays the printing target image being displayed (Im) hidden under the imaging image (Im1) along with the movement of the imaging image (Im1)
A catheter comprising an elongate shaft having a proximal end and a distal end and defining an axis, and a loop subassembly coupled to the distal end of the elongate shaft , the loop subassembly comprising a loop coupled at a distal portion of the loop to the distal end of the elongate shaft by a hinge section , and a plurality of electrodes disposed on the loop, characterized in that , in a neutral position, the loop defines a plane which is parallel to the axis of elongate shaft and the loop is positioned in a different plane than the elongate shaft.. an elongate shaft having a proximal end and a distal end and defining an axis, and a loop subassembly coupled to the distal end of the elongate shaft , the loop subassembly comprising a loop coupled at a distal portion of the loop to the distal end of the elongate shaft by a hinge section , and a plurality of electrodes disposed on the loop, characterized in that , in a neutral position, the loop defines a plane which is parallel to the axis of elongate shaft and the loop is positioned in a different plane than the elongate shaft.. a loop coupled at a distal portion of the loop to the distal end of the elongate shaft by a hinge section , and a plurality of electrodes disposed on the loop, characterized in that , in a neutral position, the loop defines a plane which is parallel to the axis of elongate shaft and the loop is positioned in a different plane than the elongate shaft..
A method, performed in a controller entity of a wireless communication system, for multipoint data flow control, wherein said method comprises the steps of: - receiving a data flow from a source flow queue; - splitting said data flow into split data flows, for each of at least two wireless transmission points; and - transmitting said split data flows to said at least two wireless transmission points; characterized by comprising the further steps of: - receiving measures of timing skews for transmissions from each of said at least two transmission points or receiving quantities from which measures of timing skews can be deduced and deducing said measures of timing skews, wherein said quantities from which said measures of timing skews can be deduced are total downlink delay for each of said at least two wireless transmission points; and - controlling said splitting in dependence of said measures of timing skews. - receiving a data flow from a source flow queue; - splitting said data flow into split data flows, for each of at least two wireless transmission points; and - transmitting said split data flows to said at least two wireless transmission points; - receiving measures of timing skews for transmissions from each of said at least two transmission points or receiving quantities from which measures of timing skews can be deduced and deducing said measures of timing skews, wherein said quantities from which said measures of timing skews can be deduced are total downlink delay for each of said at least two wireless transmission points; and - controlling said splitting in dependence of said measures of timing skews.
A thermally expandable sheet comprising: a base ; and a thermal expansion layer comprising a binder arranged on one surface of the base and configured to be used in manufacture of a shaped object by swelling of at least a portion of the thermal expansion layer , the thermally expandable sheet being characterized in that the thermal expansion layer further comprises a first thermally expandable material having a first expansion initiation temperature (Ts1) and a first maximum expansion temperature (Tm1), and a second thermally expandable material having a second expansion initiation temperature (Ts2) and a second maximum expansion temperature (Tm2), the first thermally expandable material and the second thermally expandable material are intermingled in the binder , the first expansion initiation temperature (Ts1) of the first thermally expandable material is set to be at least 35°C above the temperature of an environment in which the shaped object is to be placed, and the second expansion initiation temperature (Ts2) of the second thermally expandable material is set to be at least 35°C above the temperature of an environment in which the shaped object is to be placed, and the second maximum expansion temperature (Tm2) is set to be higher than the first maximum expansion temperature (Tm1). a base ; and a thermal expansion layer comprising a binder arranged on one surface of the base and configured to be used in manufacture of a shaped object by swelling of at least a portion of the thermal expansion layer , the thermally expandable sheet being characterized in that the thermal expansion layer further comprises a first thermally expandable material having a first expansion initiation temperature (Ts1) and a first maximum expansion temperature (Tm1), and a second thermally expandable material having a second expansion initiation temperature (Ts2) and a second maximum expansion temperature (Tm2), a first thermally expandable material having a first expansion initiation temperature (Ts1) and a first maximum expansion temperature (Tm1), and a second thermally expandable material having a second expansion initiation temperature (Ts2) and a second maximum expansion temperature (Tm2), the first thermally expandable material and the second thermally expandable material are intermingled in the binder , the first expansion initiation temperature (Ts1) of the first thermally expandable material is set to be at least 35°C above the temperature of an environment in which the shaped object is to be placed, and the second expansion initiation temperature (Ts2) of the second thermally expandable material is set to be at least 35°C above the temperature of an environment in which the shaped object is to be placed, and the second maximum expansion temperature (Tm2) is set to be higher than the first maximum expansion temperature (Tm1).
A fitting body for a sanitary fitting, having an outside which is formed by at least one first partial shell and at least one second partial shell , wherein the at least one first partial shell and the at least one second partial shell are arranged to match each other and are connected to each other on a joint surface , wherein at least one water channel is formed between the at least one first partial shell and the at least one second partial shell , characterized in that the majority of the outside is covered by a molding compound by injection molding such that the joint surface is sealed by the molding compound .
A method for producing an optoelectronic component, comprising the method steps of: A) providing a semiconductor layer sequence having at least one active region , wherein the active region is suitable for emitting electromagnetic radiation during operation, and B) applying at least one layer directly on a first surface of the semiconductor layer sequence by means of an ion assisted application method, wherein the first surface is directly adjacent to the active region, characterized in that the ion assisted application method is reactive ion plating. A) providing a semiconductor layer sequence having at least one active region , wherein the active region is suitable for emitting electromagnetic radiation during operation, and B) applying at least one layer directly on a first surface of the semiconductor layer sequence by means of an ion assisted application method, wherein the first surface is directly adjacent to the active region, characterized in that the ion assisted application method is reactive ion plating.
A composition comprising 5 to 100 wt.% of a structured aqueous phase wherein the composition contains 0.1 to 10 wt.% sericin by weight of water, said sericin having a proportion of beta-sheet in the secondary structure that exceeds 90%, wherein the structured aqueous phase has a pH in the range from 2.0 to 4.0 or from 5.5 to 10.5.
An apparatus comprising: means for determining a geographic location associated at least with operation of a device; means for determining an indication that describes a relationship between at least the geographic location and at least a first user of the device, wherein the relationship is derived from a tracked visiting history of the first user to the geographic location indicating one or more of: frequency of stays; dwell time; dwell position; path followed; or time of stay; means for determining at least one privacy level for the indication; and means for associating at least the first user of the device with the indication and the geographic location and the at least one privacy level. means for determining a geographic location associated at least with operation of a device; means for determining an indication that describes a relationship between at least the geographic location and at least a first user of the device, wherein the relationship is derived from a tracked visiting history of the first user to the geographic location indicating one or more of: frequency of stays; dwell time; dwell position; path followed; or time of stay; means for determining at least one privacy level for the indication; and means for associating at least the first user of the device with the indication and the geographic location and the at least one privacy level.
A prosthesis assembly for orthopaedic implantation comprising: a prosthesis body , an attachment portion coupled to the prosthesis body , wherein the prosthesis body is a knee meniscus replacement, and wherein the attachment portion comprises an opening , characterised in that the opening has a receiving portion with a first cross-sectional transverse width and a retaining portion extending from the receiving portion , the retaining portion having a second cross-sectional transverse width, which is less than the first cross-sectional transverse width. a prosthesis body , an attachment portion coupled to the prosthesis body , wherein the prosthesis body is a knee meniscus replacement, and wherein the attachment portion comprises an opening , characterised in that the opening has a receiving portion with a first cross-sectional transverse width and a retaining portion extending from the receiving portion , the retaining portion having a second cross-sectional transverse width, which is less than the first cross-sectional transverse width.
Method for debugging software components of a distributed real-time software system, wherein a target hardware comprises computer nodes and a development system comprises one or more computers , wherein the development of program code for each software component on the development system is based on a functional specification of the respective software component, the functional specification of a software component describing the syntax and the semantics of the input data, the output data and the internal state of the software component, as well as the processing algorithm, which determines how to calculate the output data and the next following internal state from the input data and the initial internal state, characterised in that an extended development system is realized, wherein in said extended development system the computer nodes of the target hardware are connected to the computers of the development system via one or more time-controlled distribution units , the extended development system having a sparse global time of known precision, wherein the computer nodes of the target hardware exchange messages with the computers of the development system via the at least one distribution unit , and wherein within a frame, a real-time version of a software component on the target hardware and, in parallel thereto at the same time, an extended simulation version of the software component on the development system are supplied with the same input data and brought to execution, wherein activation signals for starting the execution of the two software components are triggered at the same sparse tick of the global time, and wherein the extended simulation version of the software component executed in the development system is extended in such a way that, during its execution, selected intermediate results are written to an external data memory.
A transparent substrate comprising a porous layer in at least a portion of a surface of the substrate , wherein the refractive index of the porous layer is smaller than the refractive index of the transparent substrate ,wherein the porous layer has a porous layer pattern, wherein a cross-sectional shape of the porous layer pattern is selected from the group consisting of a semi-oval, a trapezoid, and a wedge; and wherein the porous layer has a porous layer pattern selected from the group consisting of a grid pattern, a pattern consisting of a plurality of stripes, a pattern consisting of a plurality of waves, a honeycomb pattern and a pattern consisting of a plurality of dots; wherein the porous layer pattern of the porous layer is formed as a regular pattern; wherein the porous layer is formed in the substrate such that it extends inward from the surface of the substrate ; wherein the porous layer is coplanar with the surface of the substrate ; characterized in that the width, the depth and the pitch of the porous layer pattern and the refractive index of the transparent substrate satisfy the following relationships: d : w ≤ 2 : 1 , and p ≤ 1 / 2 + 2 / n 1 2 − 1 1 / 2 , where d indicates the depth of the porous layer pattern , w indicates the width of the porous layer pattern , p indicates the pitch of the porous layer pattern , n 1 indicates the refractive index of the transparent substrate .
A radar filling level measuring device for transmitting and receiving circularly polarized waves having a wavelength λ, comprising a directional coupler having a first, a second, a third and a fourth terminal, a microwave generator , a receiving unit , an antenna having a first antenna feed and a second antenna feed , wherein: - the first terminal is coupled with the microwave generator , - the second terminal is coupled with the receiving unit , - the third terminal is coupled with the first antenna feed via a first antenna lead , and - the fourth terminal is coupled with the second antenna feed via a second antenna lead ; wherein the microwave generator , the receiving unit , the directional coupler , the first and the second antenna feed, the first and the second antenna leads are arranged on a single printed circuit board; and wherein the circularly polarized waves generated by the radar filling level measuring device are received after reflection by the first and second antenna feeds and fed into the directional coupler where they eliminate each other at the first terminal and maximally amplify each other at the second terminal. - the first terminal is coupled with the microwave generator , - the second terminal is coupled with the receiving unit , - the third terminal is coupled with the first antenna feed via a first antenna lead , and - the fourth terminal is coupled with the second antenna feed via a second antenna lead ; wherein the microwave generator , the receiving unit , the directional coupler , the first and the second antenna feed, the first and the second antenna leads are arranged on a single printed circuit board; and wherein the circularly polarized waves generated by the radar filling level measuring device are received after reflection by the first and second antenna feeds and fed into the directional coupler where they eliminate each other at the first terminal and maximally amplify each other at the second terminal.