mhurhangee/ep-ind-claims huggingface dataset:
A cable connecting structure comprising: a plurality of bus bars; a flat cable connected to the bus bars; and an insulating part having bus bar mounting grooves and a bus bar fixing portion, the bus bar mounting grooves for arranging the bus bars individually, the bus bar fixing portion for fixing the bus bars by overlapping the bus bars, characterized in that: each of the bus bars has at least one protrusion that protrudes toward one side in a depth direction of the corresponding bus bar mounting groove, the protrusion protruding toward a side where the flat cable is mounted, and wherein the flat cable is electrically and mechanically connected to the bus bars via the protrusions, a bending portion, which is bent as seen in an arrangement direction of the bus bars, is formed in at least one end portion of each of the bus bars, the insulating part has bus bar restricting parts in the form of recesses formed near an end portion of the bus bar mounting grooves, and wherein the bus bar restricting parts are configured to receive the bending portions of the bus bars, thereby restricting movements of the bus bars. a plurality of bus bars; a flat cable connected to the bus bars; and an insulating part having bus bar mounting grooves and a bus bar fixing portion, the bus bar mounting grooves for arranging the bus bars individually, the bus bar fixing portion for fixing the bus bars by overlapping the bus bars, characterized in that: each of the bus bars has at least one protrusion that protrudes toward one side in a depth direction of the corresponding bus bar mounting groove, the protrusion protruding toward a side where the flat cable is mounted, and wherein the flat cable is electrically and mechanically connected to the bus bars via the protrusions, a bending portion, which is bent as seen in an arrangement direction of the bus bars, is formed in at least one end portion of each of the bus bars, the insulating part has bus bar restricting parts in the form of recesses formed near an end portion of the bus bar mounting grooves, and wherein the bus bar restricting parts are configured to receive the bending portions of the bus bars, thereby restricting movements of the bus bars. each of the bus bars has at least one protrusion that protrudes toward one side in a depth direction of the corresponding bus bar mounting groove, the protrusion protruding toward a side where the flat cable is mounted, and wherein the flat cable is electrically and mechanically connected to the bus bars via the protrusions, a bending portion, which is bent as seen in an arrangement direction of the bus bars, is formed in at least one end portion of each of the bus bars, the insulating part has bus bar restricting parts in the form of recesses formed near an end portion of the bus bar mounting grooves, and wherein the bus bar restricting parts are configured to receive the bending portions of the bus bars, thereby restricting movements of the bus bars.
A positive electrode for a lithium secondary battery, which comprises: a positive electrode current collector; and a positive electrode active material layer including a lower layer portion directly facing the positive electrode current collector and an upper layer portion stacked directly on the surface of the lower layer portion, wherein each of the upper layer portion and the lower layer portion of the positive electrode active material layer comprises a positive electrode active material, binder polymer and a conductive material, and the positive electrode active material has an electroconductivity of 0.0001 S/cm - 0.0004 S/cm, and the content of the conductive material contained in the lower layer portion is 10-59 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, or the positive electrode active material has an electroconductivity of 0.008 S/cm - 0.015 S/cm, and the content of the conductive material contained in the lower layer portion is 10-30 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, wherein the positive electrode active material and the binder polymer contained in the upper layer portion are the same as those contained in the lower layer portion, and the conductive material used for the upper layer portion is the same as that used for the lower layer portion, the electroconductivity being determined by using a power resistance measuring system under a pressure condition of 19613.3 kg.m.s -2 (2000 kgf). a positive electrode current collector; and a positive electrode active material layer including a lower layer portion directly facing the positive electrode current collector and an upper layer portion stacked directly on the surface of the lower layer portion, wherein each of the upper layer portion and the lower layer portion of the positive electrode active material layer comprises a positive electrode active material, binder polymer and a conductive material, and the positive electrode active material has an electroconductivity of 0.0001 S/cm - 0.0004 S/cm, and the content of the conductive material contained in the lower layer portion is 10-59 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, or the positive electrode active material has an electroconductivity of 0.008 S/cm - 0.015 S/cm, and the content of the conductive material contained in the lower layer portion is 10-30 parts by weight based on 100 parts by weight of the content of the conductive material contained in the upper layer portion, wherein the positive electrode active material and the binder polymer contained in the upper layer portion are the same as those contained in the lower layer portion, and the conductive material used for the upper layer portion is the same as that used for the lower layer portion, the electroconductivity being determined by using a power resistance measuring system under a pressure condition of 19613.3 kg.m.s -2 (2000 kgf).
A method of forming a cavitated dairy product comprising: fermenting a dairy material to form a dilute fermented dairy material. separating liquid from the dilute fermented dairy material to form a fermented dairy material having a protein content of at least 5% wt and a solids content of at least 10% wt; passing the fermented dairy material through a cavitation unit operation comprising a rotor within a housing, having a plurality of cavities that generate hydrodynamic cavitation within the fermented dairy material when the rotor spins within the housing, wherein the spinning action generates controlled hydrodynamic cavitation within the cavities, and operating at 3600 rpm at a product flow rate of 1100 L/hr to form the cavitated dairy product having a protein content of at least 5% wt, wherein the cavitation unit operation produces microscopic cavitation bubbles that collapse and give off shockwaves into the fermented dairy material, altering the structure and rheological properties of the fermented dairy material. fermenting a dairy material to form a dilute fermented dairy material. separating liquid from the dilute fermented dairy material to form a fermented dairy material having a protein content of at least 5% wt and a solids content of at least 10% wt; passing the fermented dairy material through a cavitation unit operation comprising a rotor within a housing, having a plurality of cavities that generate hydrodynamic cavitation within the fermented dairy material when the rotor spins within the housing, wherein the spinning action generates controlled hydrodynamic cavitation within the cavities, and operating at 3600 rpm at a product flow rate of 1100 L/hr to form the cavitated dairy product having a protein content of at least 5% wt, wherein the cavitation unit operation produces microscopic cavitation bubbles that collapse and give off shockwaves into the fermented dairy material, altering the structure and rheological properties of the fermented dairy material.
Method for starting a drive train with a drive shaft, a drive motor and with a differential gear with three drives or outputs, wherein one output is connected to the drive shaft, a first drive is connected to the drive motor and a second drive is connected to a differential drive, wherein the drive motor is started up from a speed of zero or approximately zero, while an external braking torque acts on the drive shaft, and wherein in an acceleration phase of the drive shaft the second drive is braked, characterized in that as soon as the drive motor has reached an operating speed, the second drive is braked until the speed of the second drive has reached a speed at which the speed of the differential drive lies within its governed speed range.
An apparatus for stapling tissue, the apparatus comprising: (a) a stapling head assembly; (b) a shaft assembly coupled to the stapling head assembly; and (c) a handle assembly coupled to the shaft assembly, wherein the handle assembly comprises: (i) a motor positioned within a motor housing, (ii) a motor housing positioner coupled to a proximal end of the motor housing for positioning the motor housing, wherein the motor housing positioner is configured to translate between a proximal position and a distal position, and (iii) a selection assembly (276, 278), characterized in that the selection assembly is operable to select between a motorized operation of the stapling head assembly or a manual operation of the stapling head assembly based on the position of the motor housing. (a) a stapling head assembly; (b) a shaft assembly coupled to the stapling head assembly; and (c) a handle assembly coupled to the shaft assembly, wherein the handle assembly comprises: (i) a motor positioned within a motor housing, (ii) a motor housing positioner coupled to a proximal end of the motor housing for positioning the motor housing, wherein the motor housing positioner is configured to translate between a proximal position and a distal position, and (iii) a selection assembly (276, 278), characterized in that the selection assembly is operable to select between a motorized operation of the stapling head assembly or a manual operation of the stapling head assembly based on the position of the motor housing. (i) a motor positioned within a motor housing, (ii) a motor housing positioner coupled to a proximal end of the motor housing for positioning the motor housing, wherein the motor housing positioner is configured to translate between a proximal position and a distal position, and (iii) a selection assembly (276, 278),
Spectacle lens for a display device that can be fitted on the head of a user and generates an image, wherein the spectacle lens comprises a curved front side and a curved rear side, a coupling-in section and a coupling-out section spaced apart from the coupling-in section, as well as a light guiding channel which is suitable for guiding light bundles of pixels of the generated image, which are coupled into the spectacle lens via the coupling-in section of the spectacle lens, in the spectacle lens to the coupling-out section, by which they are coupled out of the spectacle lens, wherein the spectacle lens is constructed with several shells and comprises an outer shell and an inner shell which is joined to the outer shell, wherein a curved channel shell, which comprises a curved first reflecting surface and a curved second reflecting surface, is arranged between the outer and inner shell (19, 20), and wherein the light guiding channel comprises at least one section of the channel shell and the two reflecting surfaces (24, 25) on which the light bundles are reflected for guiding from the coupling-in section to the coupling-out section, characterized in that the channel shell does not extend over the entire spectacle lens and in the areas where the channel shell is not present, there is direct contact between the outer and inner shells (19, 20). wherein the spectacle lens comprises a curved front side and a curved rear side, a coupling-in section and a coupling-out section spaced apart from the coupling-in section, as well as a light guiding channel which is suitable for guiding light bundles of pixels of the generated image, which are coupled into the spectacle lens via the coupling-in section of the spectacle lens, in the spectacle lens to the coupling-out section, by which they are coupled out of the spectacle lens, wherein the spectacle lens is constructed with several shells and comprises an outer shell and an inner shell which is joined to the outer shell, wherein a curved channel shell, which comprises a curved first reflecting surface and a curved second reflecting surface, is arranged between the outer and inner shell (19, 20), and wherein the light guiding channel comprises at least one section of the channel shell and the two reflecting surfaces (24, 25) on which the light bundles are reflected for guiding from the coupling-in section to the coupling-out section, characterized in that the channel shell does not extend over the entire spectacle lens and in the areas where the channel shell is not present, there is direct contact between the outer and inner shells (19, 20).
A method of processing a plastic card or a passport page in a plastic card or passport page printing system, comprising: in the plastic card or passport page printing system, plasma treating a surface (32, 32') of the plastic card or the passport page in a plasma treatment station having a plasma nozzle (30, 30'); during the plasma treating moving the plasma nozzle (30, 30') relative to the plastic card or the passport page in a first direction and moving the plastic card or the passport page in second direction perpendicular to the first direction; thereafter, inputting the plastic card or the passport page into a printer of the plastic card or passport page printing system; and thereafter printing on the surface (32, 32') of the plastic card or the passport page using the printer. in the plastic card or passport page printing system, plasma treating a surface (32, 32') of the plastic card or the passport page in a plasma treatment station having a plasma nozzle (30, 30'); during the plasma treating moving the plasma nozzle (30, 30') relative to the plastic card or the passport page in a first direction and moving the plastic card or the passport page in second direction perpendicular to the first direction; thereafter, inputting the plastic card or the passport page into a printer of the plastic card or passport page printing system; and thereafter printing on the surface (32, 32') of the plastic card or the passport page using the printer.
A tag tape (101; 101') comprising a plurality of RFID tag main bodies, and a first tape (101A; 101A') and a second tape provided on opposite sides in the tape thickness direction so as to position said plurality of RFID tag main bodies therebetween; said RFID tag main body comprises: a sheet-shaped antenna base; a tag antenna provided on said antenna base that transmits and receives information, and an IC holding body that includes an IC circuit part storing information and a holding member holding said IC circuit part to said antenna base; and said second tape comprises: an affixing adhesive layer for affixing said plurality of RFID tag main bodies to an object to be affixed; a separation material layer provided on said affixing side of said affixing adhesive layer and adapted to be peeled off by a user at the affixing, characterized in that: a peel-off display part (M; M1; M1t; M2; M2t; M3) for imparting a peel-off mode of said separation material layer to said user is provided on said separation material layer. a sheet-shaped antenna base; a tag antenna provided on said antenna base that transmits and receives information, and an IC holding body that includes an IC circuit part storing information and a holding member holding said IC circuit part to said antenna base; and said second tape comprises: an affixing adhesive layer for affixing said plurality of RFID tag main bodies to an object to be affixed; a separation material layer provided on said affixing side of said affixing adhesive layer and adapted to be peeled off by a user at the affixing, characterized in that: a peel-off display part (M; M1; M1t; M2; M2t; M3) for imparting a peel-off mode of said separation material layer to said user is provided on said separation material layer. an affixing adhesive layer for affixing said plurality of RFID tag main bodies to an object to be affixed; a separation material layer provided on said affixing side of said affixing adhesive layer and adapted to be peeled off by a user at the affixing, characterized in that: a peel-off display part (M; M1; M1t; M2; M2t; M3) for imparting a peel-off mode of said separation material layer to said user is provided on said separation material layer.
Method for measuring local damping of material in composite structures, which is used in particular in the inspection, servicing or maintenance of lightweight components that comprise materials with high mechanical requirements, such as the outer skin of flying objects, characterized in that, at least by means of two actuators (2, 3), a detunable, quasi-standing wave mechanical vibration is produced in a lightweight component by means of at least two actuators (2, 3), a definable change in the position of the wave crest is realized, and from the measured values determined by sensors the distribution of the damping in the selected region of material is determined with spatial and directional resolution.
A method for applying a hybrid thermal barrier coating to a component of a gas turbine engine, wherein said component is a vane or a blade, the method comprising: applying a first high thermal conductivity thermal barrier coating material having a first thermal conductivity value to the surface of a suction side of such a component; and applying a second low thermal conductivity thermal barrier coating material having a second thermal conductivity value to the surface of a pressure side of said component, wherein said second thermal conductivity value is less than said first thermal conductivity value and the first and second thermal barrier coating materials are overlapped in an overlap region. applying a first high thermal conductivity thermal barrier coating material having a first thermal conductivity value to the surface of a suction side of such a component; and applying a second low thermal conductivity thermal barrier coating material having a second thermal conductivity value to the surface of a pressure side of said component, wherein said second thermal conductivity value is less than said first thermal conductivity value and the first and second thermal barrier coating materials are overlapped in an overlap region.
A growth environment for differentiating a neuronal cell population from primate pluripotent stem (pPS) cells, comprising a culture medium containing one or more added EGF-β superfamily antagonists, one or more added neurotrophins and one or more added mitogens.
A method for manufacturing hot rolled steel sheets, comprising subjecting a semi-manufactured steel material to heating, hot rolling including rough rolling and finish rolling, cooling after the completion of finish rolling, and coiling, thereby producing a hot rolled steel sheet, wherein the semi-manufactured steel material has a chemical composition including, by mass%, C: 0.055% to 0.15%, Si: not more than 0.2%, Mn: not less than 0.1% and not more than 1.3%, P: not more than 0.03%, S: not more than 0.007%, Al: not more than 0.1%, N: not more than 0.01%, and Ti: 0.14% to 0.30%, the contents of carbon, sulfur, nitrogen and titanium satisfying the inequality below, the contents of niobium and boron as impurities being limited to Nb: less than 0.03% and B: less than 0.0005%, wherein the chemical composition optionally further includes, by mass%, V: not more than 0.30%, one or both of W: not more than 1.0% and Mo: not more than 0.5%, not more than 1.0% in total of one or more of Sb, Cu, Ni, Sn, Cr, Ca, REM, Mg, Se, Te, Po, As, Bi, Ge, Pb, Ga, In, Tl, Zn, Cd, Hg, Ag, Au, Pd, Pt, Co, Rh, Ir, Ru, Os, Tc, Re, Ta, Be and Sr, the balance comprising Fe and inevitable impurities, the heating is performed at a heating temperature T (°C) of not less than 1150°C, the heating temperature satisfying the inequality below, the semi-manufactured steel material being held at the temperature range of not less than 1150°C for 15 minutes or more, the hot rolling is performed with a total reduction ratio in a temperature range of 980°C and below of not more than 40%, the finish rolling is performed at a finish rolling temperature of not less than 880°C, the cooling is started within 3 seconds after the completion of finish rolling and is performed at an average cooling rate of 40°C/sec. to 200°C/sec., and the coiling is performed at a coiling temperature of 500°C to 680°C, wherein: 1.0 ≤ C / 12 / Ti * / 48 Ti * < 10 - 7000 / T + 273 + 2.75 / C Ti * = Ti - 3.4 × N - 1.5 × S T: heating temperature (°C) for the semi-manufactured steel material (,, and [Ti]: contents (mass%) of the respective elements).
Single-rod measuring cell, comprising a first tube, which is not electrically conductive at least in the radial direction; a measuring membrane, which is arranged on a first end section of the first tube and tightly seals the first tube under the formation of a measuring chamber; a second tube, which surrounds the first tube at least in part and is connected to the first tube in such a way that an annular reference chamber is formed between the first tube and the second tube; a first buffer solution, which is arranged in the measuring chamber; an electrolyte solution, which is arranged in the reference chamber; a first electrode, which is in contact with the buffer solution in order to discharge a first potential; and a second electrode, which is in contact with the electrolyte in order to discharge a second potential; characterized in that an annular sealing element is arranged in the reference chamber, said annular sealing element being adjustable in the axial direction in the annular chamber and limiting the volume taken up by the electrolyte solution in the axial direction, wherein the sealing element is axially pretensioned by an electrically conductive elastic deformation body that surrounds the first tube, in that the second electrode is connected in an electrically conductive manner with the deformation body in such a way that the potential of the second electrode can be discharged via the deformation body.
Apparatus for preparing a beverage by using a capsule filled with powder in the inside, wherein said apparatus comprises such capsule, a receiving portion for receiving said capsule, a water supply (104, 106), and an output region for the beverage, wherein said capsule is a capsule comprising a shell and a separate package, wherein said shell is: - recyclable, - stable in form, - opened double-sided, - adapted to be used as adaptor for receiving and releasing said package, and - adapted to be inserted into the portion of the apparatus, and wherein said package: - is filled with said powder, - encloses said powder, and - is introducible into the shell prior to introduction of the shell along with said package into the receiving portion of the apparatus, characterized in that the package, in the course of introduction of the package into the shell, projects through a first opening of said shell and forms an offset upper end portion. - recyclable, - stable in form, - opened double-sided, - adapted to be used as adaptor for receiving and releasing said package, and - adapted to be inserted into the portion of the apparatus, and wherein said package: - is filled with said powder, - encloses said powder, and - is introducible into the shell prior to introduction of the shell along with said package into the receiving portion of the apparatus, characterized in that the package, in the course of introduction of the package into the shell, projects through a first opening of said shell and forms an offset upper end portion.