mhurhangee/patent-ind-claim-en huggingface dataset:
A process for unwinding a parent roll into multiple product rolls comprising: unwinding a tissue web from a parent roll and conveying the tissue web downstream on a web transport apparatus at a tension, and wherein a plurality of winding modules are positioned adjacent to the web transport apparatus , each winding module containing a mandrel, the mandrels being in operative association with a driving device; positioning a rotating mandrel adjacent to the transport apparatus for forming a nip between the web transport apparatus and the mandrel, the driving device driving the mandrel at a speed and the mandrel being positioned towards the transport apparatus at a nip pressure; conveying the tissue web into the nip formed between the mandrel and the web transport apparatus so as to initiate winding of the web onto the mandrel; and controlling the nip pressure, the incoming tension and the torque of the mandrel in order to control a roll bulk of a roll being wound, characterised in that the process comprises increasing the roll bulk to produce a roll having a bulk of greater than 10 cc/g by decreasing nip pressure, decreasing incoming tension, and decreasing the torque of the mandrel; and wherein the tissue web is conveyed on the web transport apparatus while being wound onto the mandrel at an average speed of from about 457.2 m/min (1500 feet per minute) to about 914.4 m/min (3000 feet per minute). unwinding a tissue web from a parent roll and conveying the tissue web downstream on a web transport apparatus at a tension, and wherein a plurality of winding modules are positioned adjacent to the web transport apparatus , each winding module containing a mandrel, the mandrels being in operative association with a driving device; positioning a rotating mandrel adjacent to the transport apparatus for forming a nip between the web transport apparatus and the mandrel, the driving device driving the mandrel at a speed and the mandrel being positioned towards the transport apparatus at a nip pressure; conveying the tissue web into the nip formed between the mandrel and the web transport apparatus so as to initiate winding of the web onto the mandrel; and controlling the nip pressure, the incoming tension and the torque of the mandrel in order to control a roll bulk of a roll being wound, characterised in that the process comprises increasing the roll bulk to produce a roll having a bulk of greater than 10 cc/g by decreasing nip pressure, decreasing incoming tension, and decreasing the torque of the mandrel; and wherein the tissue web is conveyed on the web transport apparatus while being wound onto the mandrel at an average speed of from about 457.2 m/min (1500 feet per minute) to about 914.4 m/min (3000 feet per minute).
An impact modified acrylic polymeric composition comprising a) a melt blend of a thermoplastic high molecular weight acrylic material (HMWA) and a thermoplastic low molecular weight acrylic material (LMWA), at least 70% w/w, based on the total weight of the HMWA, of the said HMWA comprising an alkyl (alk)acrylate (co)polymer, the said (co)polymer comprising at least 80% w/w of a first polymer unit derived from C 1 -C 12 alkyl (C 1 -C 8 alk)acrylate monomer units and optionally, up to 8% w/w, based on the said alkyl ( alk)acrylate (co)polymer of a first copolymer unit derived from C 1 -C 12 alkyl (C 0 -C 8 alk) acrylate and/or (C 0 -C 8 alk)acrylic acid monomer units, the said HMWA having a weight average molecular weight of between 40k Daltons and 1000k Daltons, at least 70% w/w, based on the total weight of the LMWA, of the said LMWA comprising an alkyl(alk)acrylate (co)polymer, the said (co)polymer comprising at least 80% w/w of a second polymer unit derived from C 1 -C 12 alkyl (C 1 -C 8 alk)acrylate monomer units and optionally, up to 10% w/w, based on the said alkyl (alk)acrylate (co)polymer of a second copolymer unit derived from C 1 -C 12 alkyl (C 0 -C 8 alk)acrylate and/or (C 0 -C 8 alk)acrylic acid monomer units, the said LMWA having a weight average molecular weight of between the entanglement molecular weight (M e ) (expressed in k Daltons) and 250k Daltons and in excess of 11k Daltons,, with the proviso that the HMWA has a higher Mw than the LMWA, wherein the first polymer unit of the HMWA and the second polymer unit of the LMWA are the same, b) and a core-shell impact modifier. a) a melt blend of a thermoplastic high molecular weight acrylic material (HMWA) and a thermoplastic low molecular weight acrylic material (LMWA), at least 70% w/w, based on the total weight of the HMWA, of the said HMWA comprising an alkyl (alk)acrylate (co)polymer, the said (co)polymer comprising at least 80% w/w of a first polymer unit derived from C 1 -C 12 alkyl (C 1 -C 8 alk)acrylate monomer units and optionally, up to 8% w/w, based on the said alkyl ( alk)acrylate (co)polymer of a first copolymer unit derived from C 1 -C 12 alkyl (C 0 -C 8 alk) acrylate and/or (C 0 -C 8 alk)acrylic acid monomer units, the said HMWA having a weight average molecular weight of between 40k Daltons and 1000k Daltons, at least 70% w/w, based on the total weight of the LMWA, of the said LMWA comprising an alkyl(alk)acrylate (co)polymer, the said (co)polymer comprising at least 80% w/w of a second polymer unit derived from C 1 -C 12 alkyl (C 1 -C 8 alk)acrylate monomer units and optionally, up to 10% w/w, based on the said alkyl (alk)acrylate (co)polymer of a second copolymer unit derived from C 1 -C 12 alkyl (C 0 -C 8 alk)acrylate and/or (C 0 -C 8 alk)acrylic acid monomer units, the said LMWA having a weight average molecular weight of between the entanglement molecular weight (M e ) (expressed in k Daltons) and 250k Daltons and in excess of 11k Daltons,, with the proviso that the HMWA has a higher Mw than the LMWA, wherein the first polymer unit of the HMWA and the second polymer unit of the LMWA are the same, b) and a core-shell impact modifier.
A liquid droplet discharge head comprising: a plurality of pressure chambers configured to be filled with ink; a plurality of nozzles communicating with the plurality of pressure chambers ; an actuator configured to change volume in each pressure chamber to discharge a liquid droplet from each nozzle ; and a drive circuit configured to apply a discharge pulse including an expansion pulse for expanding the volume in said each pressure chamber and a contraction pulse for contracting the volume in said each pressure chamber to the actuator when the liquid droplet is discharged, and to apply, to the actuator , a micro-vibration pulse that changes the volume of said each pressure chamber to the extent that the liquid droplet is not discharged from said each nozzle at a timing when the liquid droplet is not discharged, wherein said each pressure chamber shares the actuator with an adjacent pressure chamber , the micro-vibration pulse includes an expansion pulse portion and a contraction pulse portion, a central position of the expansion pulse portion in the micro-vibration pulse corresponds to a central position of the expansion pulse in the discharge pulse, and a falling position of the contraction pulse portion in the micro-vibration pulse corresponds to a falling position of the contraction pulse in the discharge pulse. a plurality of pressure chambers configured to be filled with ink; a plurality of nozzles communicating with the plurality of pressure chambers ; an actuator configured to change volume in each pressure chamber to discharge a liquid droplet from each nozzle ; and a drive circuit configured to apply a discharge pulse including an expansion pulse for expanding the volume in said each pressure chamber and a contraction pulse for contracting the volume in said each pressure chamber to the actuator when the liquid droplet is discharged, and to apply, to the actuator , a micro-vibration pulse that changes the volume of said each pressure chamber to the extent that the liquid droplet is not discharged from said each nozzle at a timing when the liquid droplet is not discharged, wherein said each pressure chamber shares the actuator with an adjacent pressure chamber , the micro-vibration pulse includes an expansion pulse portion and a contraction pulse portion, a central position of the expansion pulse portion in the micro-vibration pulse corresponds to a central position of the expansion pulse in the discharge pulse, and a falling position of the contraction pulse portion in the micro-vibration pulse corresponds to a falling position of the contraction pulse in the discharge pulse.
A method of producing a semiconductor substrate (1000d, 1100d, 1200d, 1300d; 1400d) comprising at least one integrated magnetic flux concentrator (1027; 1127 1227; 1327; 1427), the method comprising the steps of: a) providing a semiconductor substrate (1000a; 1100a; 1200a; 1300a; 1400a) having an upper surface; b) making at least one cavity (1026; 1126; 1226; 1326; 1426) in said upper surface; c) depositing one or more layers (1331; 1325) of one or more materials, including sputtering at least one layer of a soft magnetic material (1025; 1125; 1225; 1325; 1425); d) removing substantially all of the soft magnetic material that is situated outside of the at least one cavity (1026; 1126; 1226; 1326; 1426), while leaving at least a portion of the soft magnetic material that is inside said at least one cavity; characterised in that step c) comprises: forming a stack of layers by repeating at least two times: i) sputtering a stress release layer (1331.i); and ii) sputtering a layer (1325.i) of a soft magnetic material. a) providing a semiconductor substrate (1000a; 1100a; 1200a; 1300a; 1400a) having an upper surface; b) making at least one cavity (1026; 1126; 1226; 1326; 1426) in said upper surface; c) depositing one or more layers (1331; 1325) of one or more materials, including sputtering at least one layer of a soft magnetic material (1025; 1125; 1225; 1325; 1425); d) removing substantially all of the soft magnetic material that is situated outside of the at least one cavity (1026; 1126; 1226; 1326; 1426), while leaving at least a portion of the soft magnetic material that is inside said at least one cavity; i) sputtering a stress release layer (1331.i); and ii) sputtering a layer (1325.i) of a soft magnetic material.
Light unit with an extended light emission surface, comprising a light source , and a flat light distribution body having a first principal surface and a second principal surface disposed on opposite sides of the flat light distribution body , wherein the light source is positioned outside of the flat light distribution body , with light emitted by the light source being coupled into the flat light distribution body and being propagated within the flat light distribution body via total internal reflection at the first and second principal surfaces , wherein the first principal surface has a plurality of surface irregularities , wherein light arriving at a surface irregularity at an angle of incidence is reflected at an angle of reflection that is different from the angle of incidence with respect to the first principal surface , with the angle of reflection allowing for the light to be coupled out of the flat light distribution body , and wherein a total irregularity ratio of the first principal surface is defined as a combined area of the plurality of surface irregularities on the first principal surface divided by a total area of the first principal surface and wherein a regional irregularity ratio is defined as a combined area of a subset of the plurality of surface irregularities in a sub-region of the first principal surface divided by a total area of said sub-region of the first principal surface, wherein the first principal surface has at least one square sub-region whose area is 10% of the total area of the first principal surface and whose regional irregularity ratio is at least 50% higher than the total irregularity ratio; chracterized in that the first principal surface is the extended light emission surface and wherein the light unit comprises an extended reflector arranged outside of the flat light distribution body alongside the second principal surface , with light being coupled out of the flat light distribution body at the first principal surface after being reflected at the plurality of surface irregularities on the first principal surface , travelling through the flat light distribution body , leaving the flat light distribution body at the second principal surface , being reflected at the extended reflector , entering the flat light distribution body via the second principal surface , and travelling through the flat light distribution body , and in that the flat light distribution body has a substantially cuboid shape and the light source is arranged in a corner region of the flat light distribution body , with light from the light source being coupled into the flat light distribution body via a light entry surface , wherein the light entry surface has a concave shape, when seen from the light source , in a cross-sectional plane parallel to the first principal surface and wherein the light entry surface has a convex shape, when seen from the light source , in a cross-sectional plane orthogonal to the first principal surface .
A method for applying a two-part adhesive to a substrate, the method comprising: providing a first package having a first collapsible bag for storing a first part of the two-part adhesive, wherein the first collapsible bag is disposed within a first rigid container , wherein the first collapsible bag has a first opening and a first cap secured to the first opening ; providing a second package having a second collapsible bag for storing a second part of the two-part adhesive, wherein the second collapsible bag is disposed within a second rigid container , wherein the second collapsible bag has a second opening and a second cap secured to the second opening ; removing the first cap and the second cap thereby exposing the first and second parts of the two-part adhesive to air; attaching a first connector to the first opening and attaching a second connector to the second opening ; connecting the first connector to an applicator device and connecting the second connector to the applicator device ; pumping the first part from the first package and the second part from the second package ; mixing the first part with the second part; and applying the mixed first part and second part onto the substrate. providing a first package having a first collapsible bag for storing a first part of the two-part adhesive, wherein the first collapsible bag is disposed within a first rigid container , wherein the first collapsible bag has a first opening and a first cap secured to the first opening ; providing a second package having a second collapsible bag for storing a second part of the two-part adhesive, wherein the second collapsible bag is disposed within a second rigid container , wherein the second collapsible bag has a second opening and a second cap secured to the second opening ; removing the first cap and the second cap thereby exposing the first and second parts of the two-part adhesive to air; attaching a first connector to the first opening and attaching a second connector to the second opening ; connecting the first connector to an applicator device and connecting the second connector to the applicator device ; pumping the first part from the first package and the second part from the second package ; mixing the first part with the second part; and applying the mixed first part and second part onto the substrate.
A vehicle approach notification device , comprising: a first illumination portion for mounting in a cab capable of elevation in a vehicle and for irradiating a first notification light (L1) toward a road surface (F) behind the vehicle when the vehicle approach notification device is mounted on the vehicle; a second illumination portion for mounting on a vehicle body incapable of elevation in the vehicle and for irradiating a second notification light (L2) toward the road surface (F) behind the vehicle when the vehicle approach notification device is mounted on the vehicle; and a control unit for controlling a lighting state of the first illumination portion and the second illumination portion according to a travel state of the vehicle body and an elevation position (H) of the cab , wherein the vehicle approach notification device is characterized in that the control unit is configured such that it turns on or blinks the first illumination portion and turns off the second illumination portion when the travel state is backward travel and the elevation position (H) is lower than a predetermined threshold value; it turns off the first illumination portion and turns on or blinks the second illumination portion when the travel state is backward travel or travel stop and the elevation position (H) is equal to or higher than the threshold value; and it turns off the first illumination portion and the second illumination portion when the travel state is forward travel. a first illumination portion for mounting in a cab capable of elevation in a vehicle and for irradiating a first notification light (L1) toward a road surface (F) behind the vehicle when the vehicle approach notification device is mounted on the vehicle; a second illumination portion for mounting on a vehicle body incapable of elevation in the vehicle and for irradiating a second notification light (L2) toward the road surface (F) behind the vehicle when the vehicle approach notification device is mounted on the vehicle; and a control unit for controlling a lighting state of the first illumination portion and the second illumination portion according to a travel state of the vehicle body and an elevation position (H) of the cab , wherein the vehicle approach notification device is characterized in that the control unit is configured such that it turns on or blinks the first illumination portion and turns off the second illumination portion when the travel state is backward travel and the elevation position (H) is lower than a predetermined threshold value; it turns off the first illumination portion and turns on or blinks the second illumination portion when the travel state is backward travel or travel stop and the elevation position (H) is equal to or higher than the threshold value; and it turns off the first illumination portion and the second illumination portion when the travel state is forward travel.
A regenerative brake control device for an electric-powered vehicle comprising: a regenerative brake control unit that controls an electric motor which drives vehicle wheels into a regeneration ratio corresponding to a regenerative level (B0, B1, ..., B5) to obtain a regenerative braking force, wherein a normal regeneration level (D, B2) corresponds to a preset initial value of the regenerative braking force; a first regenerative braking force setting unit that sets the regenerative level (BL, B, D) with an operation of a shift lever; and a second regenerative braking force setting unit that is operated by a driver operating a paddle switch while gripping a steering wheel to set the regenerative level (BA, BB, ...., BF), wherein the number of setting states (BA, BB, BC, BD, BE, BF) of the regenerative level (B0, B1, ..., B5) with the second regenerative braking force setting unit is larger than that (D, B, BL) of the first regenerative braking force setting unit , a change to lessen the regeneration ratio from the normal regeneration level (D, B2) is performed by the second regenerative braking force setting unit . a regenerative brake control unit that controls an electric motor which drives vehicle wheels into a regeneration ratio corresponding to a regenerative level (B0, B1, ..., B5) to obtain a regenerative braking force, wherein a normal regeneration level (D, B2) corresponds to a preset initial value of the regenerative braking force; a first regenerative braking force setting unit that sets the regenerative level (BL, B, D) with an operation of a shift lever; and a second regenerative braking force setting unit that is operated by a driver operating a paddle switch while gripping a steering wheel to set the regenerative level (BA, BB, ...., BF), wherein the number of setting states (BA, BB, BC, BD, BE, BF) of the regenerative level (B0, B1, ..., B5) with the second regenerative braking force setting unit is larger than that (D, B, BL) of the first regenerative braking force setting unit , a change to lessen the regeneration ratio from the normal regeneration level (D, B2) is performed by the second regenerative braking force setting unit .
A drag head for a vacuum cleaner for aspirating undesirable material from a surface of a meat product, said drag head comprising: a. a drag head body ; b. an aspiration opening or in-let opening in said drag head body ; c. at least one spacer with a resting area , said spacer being connected to said drag head body in front of and/or alongside said aspiration opening and with said resting area located away from said aspiration opening such that said resting area can rest on a meat product surface during application; and which drag head is further characterised by comprising: d. at least one slide shoe with a sliding part comprising a first sliding area , said slide shoe being arranged besides said drag head body such that at least part of the first sliding area is substantially parallel to at least a part of said resting area of said spacer ; wherein said slide shoe is movable in a direction substantially perpendicular to said resting area of said spacer . a. a drag head body ; b. an aspiration opening or in-let opening in said drag head body ; c. at least one spacer with a resting area , said spacer being connected to said drag head body in front of and/or alongside said aspiration opening and with said resting area located away from said aspiration opening such that said resting area can rest on a meat product surface during application; and which drag head is further characterised by comprising: d. at least one slide shoe with a sliding part comprising a first sliding area , said slide shoe being arranged besides said drag head body such that at least part of the first sliding area is substantially parallel to at least a part of said resting area of said spacer ;
A pharmaceutical composition for once daily intravaginal administration to postmenopausal women comprising dehydroepiandrosterone (DHEA), formulated to provide a dosage of DHEA of 3 to 13 mg per day.
Socket outlet with increased personal protection with a centre piece surrounded by a design frame and a base part fixed to a support ring for connecting a first terminal for an outer conductor and a second terminal for a neutral conductor, which can be connected to the power supply network, wherein a voltage supply unit (S) can be fixed to the base part , which on the one hand comes into active contact with the base part and which on the other hand is provided for the electrical connection of at least one electrical functional module, the voltage supply unit (S) having at least one connection socket for connecting the at least one electrical functional module, into which connection socket a plug connector is inserted in a contacting manner, which central piece has openings for the two terminals, characterised in that a printed circuit board (LE) in the socket part comprises a sensor (X) for detecting the insertion depth of plug pins (ST) to be inserted into the two openings, the socket has an evaluation unit which is suitable for evaluating whether the detected insertion depth is correct, and the socket is connected to a switchable relay (R), which relay (R) can be switched depending on the detection of the insertion depth or the evaluation, wherein specific insertion depths, discrete or gradual ranges, are defined in the evaluation unit for evaluating whether the actuation is correct, wherein a comparison of the detected insertion depths with the defined insertion depths takes place, wherein the at least one sensor (X) is designed as a linear potentiometer.