mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a low sugar shaped snack product, comprising the steps of: - providing a food component selected from the group consisting of nuts, dried or infused fruits, seeds, beans, puffed cereals and any mixtures thereof, - providing an aqueous binder composition, which mixture comprises a partially acid-hydrolyzed starch, - mixing the food component and the aqueous binder composition, - mixing into the obtained mixture of the food component and the aqueous binder composition a partially enzymatic hydrolyzed starch in dry form and mixing the thus obtained mixture, - shaping the snack product from the thus obtained mixture, and - drying the snack product preferably at a temperature in the range of 80 °C to 150 °C, wherein the aqueous binder composition comprises the partially acid-hydrolyzed starch present in an amount of 0.1-25 wt.%, preferably in an amount of 5-25 wt.%, drawn on the total amount of the food component, and the partially enzymatic hydrolyzed starch, which is present in an amount of 0.1-6 wt.%, drawn on the total amount of the food component, and wherein the shaped snack product comprises less than 7 wt.% sugar, drawn on the total weight of the snack product, or, if the snack product contains ingredients such as fruits that have a natural sugar content, comprises less than 15 wt. %, drawn on the total weight of the product. - providing a food component selected from the group consisting of nuts, dried or infused fruits, seeds, beans, puffed cereals and any mixtures thereof, - providing an aqueous binder composition, which mixture comprises a partially acid-hydrolyzed starch, - mixing the food component and the aqueous binder composition, - mixing into the obtained mixture of the food component and the aqueous binder composition a partially enzymatic hydrolyzed starch in dry form and mixing the thus obtained mixture, - shaping the snack product from the thus obtained mixture, and - drying the snack product preferably at a temperature in the range of 80 °C to 150 °C,
A method for preparing sugar by using sweet potato residue, characterized in that the method comprises the following steps: Step 1: taking sweet potato residue, pulverizing or grinding the wet residue, adding the waste water of sweet potato starch to formulate a slurry; adjusting the slurry to pH 4.0-6.0, adding cellulase and adding β-glucanase to hydrolyze for 2-10 h at 20-70 °C; Step 2: adding xylanase and pectinase to hydrolyze for 2-10 h at 25-60 °C and pH 3.5-6.0; adding acid protease to hydrolyze for 1-8 h at a temperature of 30-50 °C and pH 2.5-6.0; heating at 110-120 °C for 30 min to inactivate the enzymes; adjusting to pH 5.5-8.0, adding thermostable α-amylase or mesophilic α-amylase to hydrolyze for 1-2 h; cooling to 40-65 °C, adjusting to pH 3.0-5.5, and adding glucoamylase to hydrolyze for 10-20 h; Step 3: performing solid-liquid separation on the liquid material, concentrating the liquid to obtain glucose. Step 1: taking sweet potato residue, pulverizing or grinding the wet residue, adding the waste water of sweet potato starch to formulate a slurry; adjusting the slurry to pH 4.0-6.0, adding cellulase and adding β-glucanase to hydrolyze for 2-10 h at 20-70 °C; Step 2: adding xylanase and pectinase to hydrolyze for 2-10 h at 25-60 °C and pH 3.5-6.0; adding acid protease to hydrolyze for 1-8 h at a temperature of 30-50 °C and pH 2.5-6.0; heating at 110-120 °C for 30 min to inactivate the enzymes; adjusting to pH 5.5-8.0, adding thermostable α-amylase or mesophilic α-amylase to hydrolyze for 1-2 h; cooling to 40-65 °C, adjusting to pH 3.0-5.5, and adding glucoamylase to hydrolyze for 10-20 h; Step 3: performing solid-liquid separation on the liquid material, concentrating the liquid to obtain glucose.
Drawing carriage for a drawing machine, comprising two clamping jaws as well as a clamping jaw moving device for an opening and closing movement of the clamping jaws, characterized in that the clamping jaw moving device comprises exactly one linear motor, wherein the linear motor has a stator part affixed to the drawing carriage and a mover part that is arranged on the drawing carriage and linearly movable relative to the stator part, and the mover part engages in at least one clamping jaw or a clamping jaw holder directly or indirectly.
A method for producing a fuel tank provided with internal accessories and having a wall made of plastic made in a single piece by blow moulding a split parison or a parison in at least two parts, said method comprising the following steps: a) the parison is introduced in the heat-softened state into a mould comprising dies; b) a core on which the accessories are placed is introduced inside the parison; e) the parison is pressed onto the dies of the mould; d) the accessories are fastened to the parison with the aid of the core in an ideal layout; e) the core is withdrawn and the mould is closed; f) the tank is moulded from the parison; and g) the tank is removed from the mould, the blow moulding method being characterized in that the accessories comprise a small pipe connected to an internal ventilation circuit and equilibrium of pressure between the ventilation circuit and the internal pressure of the tank is provided by making an orifice in the small pipe attached to the wall of the tank. a) the parison is introduced in the heat-softened state into a mould comprising dies; b) a core on which the accessories are placed is introduced inside the parison; e) the parison is pressed onto the dies of the mould; d) the accessories are fastened to the parison with the aid of the core in an ideal layout; e) the core is withdrawn and the mould is closed; f) the tank is moulded from the parison; and g) the tank is removed from the mould,
Flow rate regulator having a deformable regulating body which is arranged on the inflow side with respect to a main body such that a control gap is formed between the regulating body and the main body, wherein at least one drain opening, arranged downstream of the control gap, is formed in the main body, wherein a clear opening area of the control gap is defined by an inflow pressure-dependent deformation of the regulating body, wherein the control gap is divided into at least two separate regions such that the regulating body can be deformed in the at least two regions in an essentially decoupled manner such that one of the two separate regions, as a high-pressure region, essentially regulates a high-pressure behavior of the flow rate regulator while the other one of the two separate regions, as a low-pressure region, essentially regulates a low-pressure behavior of the flow rate regulator, wherein the high-pressure region is formed such that it remains at least partially open at all pressures, wherein in the high-pressure region the main body forms a groove which has a depth such that the regulating body remains at a distance from a ground of the groove at all pressures, and in that the low-pressure region is formed such that it is essentially closed above a pressure threshold, wherein the control gap is divided into the at least two separate regions by supporting elements that support the regulating body, in particular across the control gap, already at essentially zero inflow pressure, in particular at a pressure below 0.1 bar, characterized in that in the low-pressure region at least one intermediate element is disposed which is dimensioned such that it does not contact the regulating body below an intermediate pressure and that it supports the regulating body above the intermediate pressure.
An apparatus for connecting double jacketed pipes, comprising two pipe coupling parts (1, 2; 21, 22; 41, 42; 41', 42'; 61, 62) corresponding to one another and a locking element (16; 36; 56; 56', 76) for axially connecting the pipe coupling parts (1, 2; 21, 22; 41, 42; 41', 42'; 61, 62); - the pipe coupling parts (1, 2; 21, 22; 41, 42; 41', 42'; 61, 62) respectively having an inner ring (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i) to be welded to an inner pipe (7, 8), an outer ring (1a, 2a; 21a, 22a; 41a, 42a; 41a', 42a'; 61a, 62a) to be welded to a jacketed pipe (9, 10), and between the inner ring (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i) and the outer ring (1a, 2a; 21a, 22a; 41a, 42a; 41a', 42a'; 61a, 62a) respectively a passage (12, 32, 52, 52', 72) interrupted by a plurality of bars (11, 31, 51, 51', 71), wherein at least one of the pipe coupling parts (1, 21, 41, 41', 61) is divided in form and has two separate components, namely an inner component (1i, 21i, 41i, 41i', 61i) which is formed by the inner ring (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i) or at least includes the latter and has an external thread (13, 33, 53, 53', 73), and an outer component (1a, 21a, 41a, 41a', 61a) which is formed by the outer ring (1a, 2a; 21a, 22a; 41a, 42a; 41a', 42a'; 61a, 62a) or includes the latter and has an internal thread (14, 34, 54, 54', 74) corresponding to the external thread (13, 33, 53, 53', 73) of the inner component (1i, 21i, 41i, 41i', 61i) so that the outer component (1a, 21a, 41a, 41a', 61a) can be screwed onto the inner component (1i, 21i, 41i, 41i', 61i), characterized in that the inner rings (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i) of the two pipe coupling parts (1, 2; 21, 22; 41, 42; 41', 42'; 61, 62) are pushed one inside the other, there being play in the axial direction between the two inner rings (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i). - the pipe coupling parts (1, 2; 21, 22; 41, 42; 41', 42'; 61, 62) respectively having an inner ring (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i) to be welded to an inner pipe (7, 8), an outer ring (1a, 2a; 21a, 22a; 41a, 42a; 41a', 42a'; 61a, 62a) to be welded to a jacketed pipe (9, 10), and between the inner ring (1i, 2i; 21i, 22i; 41i, 42i; 41i', 42i'; 61i, 62i) and the outer ring (1a, 2a; 21a, 22a; 41a, 42a; 41a', 42a'; 61a, 62a) respectively a passage (12, 32, 52, 52', 72) interrupted by a plurality of bars (11, 31, 51, 51', 71),
A process for producing a frozen confectionery product, the process comprising: (a) supplying a frozen confection to a nozzle which has an orifice having a non-circular cross-section; (b) dispensing a filling comprising sauce and / or inclusions into the frozen confection inside the nozzle; (c) extruding the frozen confection and filling from the nozzle through the orifice until the extruded frozen confection makes contact with a receiving surface; wherein the longest axis of the product is parallel to the direction of extrusion; and then (d) cutting the extruded frozen confection with an iris cutter, wherein the receiving surface moves horizontally beneath the cutter so that the products rotate from having their longest axis vertical to horizontal as they land on the receiving surface and become aligned with its direction of motion. (a) supplying a frozen confection to a nozzle which has an orifice having a non-circular cross-section; (b) dispensing a filling comprising sauce and / or inclusions into the frozen confection inside the nozzle; (c) extruding the frozen confection and filling from the nozzle through the orifice until the extruded frozen confection makes contact with a receiving surface; wherein the longest axis of the product is parallel to the direction of extrusion; and then (d) cutting the extruded frozen confection with an iris cutter,
An optical system of an endoscope having a lateral viewing direction, comprising a sideways looking distal optical assembly and a proximal optical assembly, wherein light bundles incident from an object space are guided along a beam path by the optical assemblies (24, 26) and imaged on an image sensor (52L, 52R), wherein the distal optical assembly comprises a deflection prism assembly which comprises a first prism and a second prism which follow one another in the direction of incident light, wherein the first prism comprises a first inlet side and a first outlet side inclined with respect thereto, and wherein the second prism comprises a second inlet side, a reflection side and a second outlet side, characterized in that the first outlet side of the first prism and/or the second inlet side of the second prism is/are provided with a coating in a region outside of the beam path, and an air gap is provided in the region of the beam path between the first outlet side and the second inlet side, wherein the coating is a chromium coating or a coating containing, at least for the most part, chromium, wherein the side provided with the coating being composed of the region outside the beam path and a region inside the beam path, wherein a border between these two regions being defined by those bundles of rays which enter the optical system from an edge of a field of view and are still imaged on the image sensor (52L, 52R), wherein only the region outside the beam path and not the region inside the beam path is provided with the coating.
A method of generating ultrasound by driving an array of ultrasonic transducers (102, 102a, 102b), said method comprising a charge transfer procedure comprising: switching a terminal of a first ultrasonic transducer of said array, at first electric potential, to a charge distribution bus (108, 108a, 108b); switching a terminal of a second ultrasonic transducer of said array, at a second electric potential different than said first potential, to said charge distribution bus (108, 108a, 108b); and characterized in allowing charge to flow from said first ultrasonic transducer to said second ultrasonic transducer through said charge distribution bus (108, 108a, 108b). switching a terminal of a first ultrasonic transducer of said array, at first electric potential, to a charge distribution bus (108, 108a, 108b); switching a terminal of a second ultrasonic transducer of said array, at a second electric potential different than said first potential, to said charge distribution bus (108, 108a, 108b); and characterized in allowing charge to flow from said first ultrasonic transducer to said second ultrasonic transducer through said charge distribution bus (108, 108a, 108b).
An inflator apparatus (10, 100) for inflating an un-inflated tire-wheel assembly (TWu), comprising: a support structure; an interface portion (16, 116) rotatably-attached to the support structure, wherein the interface portion (16, 116) includes a plurality of inflator heads (26, 126), wherein each inflator head (26a-26c, 126a-126f) of the plurality of inflator heads (26, 126) includes: an array of axially-projecting fluid channels supported by an upper annular rim body and a lower annular rim body, wherein each axially-projecting fluid channel of the array of axially-projecting fluid channels defines a fluid outlet, wherein each axially-projecting fluid channel of the array of axially-projecting fluid channels includes a fluid inlet; a plunger portion movably-connected to the support structure, wherein the plunger portion is movably-connected to the support structure to permit selective coupling of the plunger portion with one inflator head (26a-26c, 126a-126f) of the plurality of inflator heads (26, 126); and a fluid conduit connected to the plunger portion, wherein the fluid conduit is fluidly connectable with the fluid inlet of each axially-projecting fluid channel of the array of axially-projecting fluid channels of the one inflator head (26a-26c, 126a-126f) of the plurality of inflator heads (26, 126). a support structure; an interface portion (16, 116) rotatably-attached to the support structure, wherein the interface portion (16, 116) includes a plurality of inflator heads (26, 126), wherein each inflator head (26a-26c, 126a-126f) of the plurality of inflator heads (26, 126) includes: an array of axially-projecting fluid channels supported by an upper annular rim body and a lower annular rim body, wherein each axially-projecting fluid channel of the array of axially-projecting fluid channels defines a fluid outlet, wherein each axially-projecting fluid channel of the array of axially-projecting fluid channels includes a fluid inlet; a plunger portion movably-connected to the support structure, wherein the plunger portion is movably-connected to the support structure to permit selective coupling of the plunger portion with one inflator head (26a-26c, 126a-126f) of the plurality of inflator heads (26, 126); and a fluid conduit connected to the plunger portion, wherein the fluid conduit is fluidly connectable with the fluid inlet of each axially-projecting fluid channel of the array of axially-projecting fluid channels of the one inflator head (26a-26c, 126a-126f) of the plurality of inflator heads (26, 126).
A connection piece for respiration comprising an opening pointing toward the breathing tube and an opening arranged toward the patient interface and an atmosphere opening that can be closed from the inside at least in part by means of a membrane, characterized in that the connection piece comprises a lateral membrane opening for receiving the membrane in the connection piece and the membrane is held by means of a membrane ring that fully encircles the connection piece.
An injection-molding tool configured for automated molding of plastic items, said injection-molding tool comprises at least two separate mold parts (1, 10) arranged so that they can be moved along a central tool axis between a closed position where they are abutting each other and an open position where they are away from each other, and where at least one of the mold parts comprises at least one alignment compensator, the compensator comprising a first and at least one second compensator part (2, 4) the first compensator part having one or more sockets each socket being adapted for receiving each of the second compensator part so that it can slide along the central tool axis in the socket, and for allowing the second compensator part to tilt in the socket, and where a seal is arranged so that the seal and the first and the second compensator part (2, 4) encloses a space in the socket containing an elastic and/or fluid material, chraracterized in, that the seal comprises a lid made from a plastic material forming a plate having an outer periphery so that it fits with a press fit into the socket and forms a tight seal, and being arranged between the second compensator part and the space in the socket.
A composition comprising a peroxide-crosslinked, high melt strength ethylene-based polymer, the ethylene-based polymer made in a tubular reactor, and the composition having a dissipation factor measured at 130°C (60 Hz, 2kV) of less than or equal to (≤) 0.5%; wherein high melt strength ethylene-based polymer means an ethylene-based polymer, modified or not with a branching agent, having a melt strength that satisfies the following equation at a test temperature of 190°C: Melt Strength=Ce − 0.3 melt index with 2.16 kg load where the parameter C is greater than or equal to (≥) 15.
A communication method of an access point, the method comprising: receiving a first request frame from a first terminal requesting an uplink communication; transmitting a first response frame to the first terminal indicating whether the first request frame is received, wherein the first response frame is received by at least one second terminal (303, 304, 305, 306); waiting for at least one second request frame to be received from the at least one second terminal (303, 304, 305, 306) during a predetermined waiting window, the second request frame indicating a request for uplink communication from the at least one second terminal (303, 304, 305, 306); permitting uplink communication of the at least one second terminal (303, 304, 305, 306) based on whether the at least one second request frame is received; and transmitting a second response frame including information about assigning a resource to the first terminal and the at least one second terminal (303, 304, 305, 306); and the method being characterized by simultaneously receiving data (360, 370, 380) from each of the first terminal and the at least one second terminal (303, 304, 305, 306) based on the assigned resource, wherein the second response frame includes information about a power back-off for each of the first terminal and the at least one second terminal (303, 304, 305, 306), said power back-off including information for adjusting a magnitude of a transmission signal by each of the first terminal and the at least one second terminal (303, 304, 305, 306). receiving a first request frame from a first terminal requesting an uplink communication; transmitting a first response frame to the first terminal indicating whether the first request frame is received, wherein the first response frame is received by at least one second terminal (303, 304, 305, 306); waiting for at least one second request frame to be received from the at least one second terminal (303, 304, 305, 306) during a predetermined waiting window, the second request frame indicating a request for uplink communication from the at least one second terminal (303, 304, 305, 306); permitting uplink communication of the at least one second terminal (303, 304, 305, 306) based on whether the at least one second request frame is received; and transmitting a second response frame including information about assigning a resource to the first terminal and the at least one second terminal (303, 304, 305, 306); and the method being characterized by simultaneously receiving data (360, 370, 380) from each of the first terminal and the at least one second terminal (303, 304, 305, 306) based on the assigned resource, wherein the second response frame includes information about a power back-off for each of the first terminal and the at least one second terminal (303, 304, 305, 306), said power back-off including information for adjusting a magnitude of a transmission signal by each of the first terminal and the at least one second terminal (303, 304, 305, 306).
A thermostatic radiator valve (21, 22, 23) configured to adjust a flow of heat transfer fluid from a thermal energy generator configured to heat or cool a room of a building, said heat transfer fluid entering a heat exchanger (11, 12, 13) based on a defined temperature setpoint from a user, the thermal energy generator and the heat exchanger (11, 12, 13) configured to heat or cool a room of the building, the thermostatic radiator valve being adapted to be situated in the room, the room having a room temperature, the TRV (21, 22, 23) comprising: - a communication link (41, 42, 43) to a thermostat controlling the thermal energy generator for the building based on a thermostat temperature setpoint; - an input interface configured to allow a user to enter the defined temperature setpoint or acquire the defined temperature setpoint; characterized in that the TRV (21, 22, 23) is configured to send to the thermostat a command to directly trigger the turned off thermal energy generator if a difference between the defined temperature setpoint and the room temperature has a same sign as a gradient of temperature to be generated by the thermal energy generator and if the thermostat has reached the thermostat temperature setpoint in the room. - a communication link (41, 42, 43) to a thermostat controlling the thermal energy generator for the building based on a thermostat temperature setpoint; - an input interface configured to allow a user to enter the defined temperature setpoint or acquire the defined temperature setpoint;