mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a deformable display panel ; a first window disposed on the deformable display panel , the first window including a first surface, a second surface opposite the first surface, and a side surface disposed between the first surface and the second surface; a first adhesive disposed between the deformable display panel and the first window ; a second window disposed on the first window ; and a second adhesive disposed between the first window and the second window , characterized in that the electronic device comprises a shatterproof coating provided on at least a part of the side surface of the first window and the first surface of the first window . a deformable display panel ; a first window disposed on the deformable display panel , the first window including a first surface, a second surface opposite the first surface, and a side surface disposed between the first surface and the second surface; a first adhesive disposed between the deformable display panel and the first window ; a second window disposed on the first window ; and a second adhesive disposed between the first window and the second window , characterized in that the electronic device comprises a shatterproof coating provided on at least a part of the side surface of the first window and the first surface of the first window .
A process for making a storage stabilized liposomal irinotecan composition stabilized to form less than 20 mol% lysophosphatidylcholine (lyso-PC) during the first 6 months of storage at a temperature ranging from 2 to 8 °C, comprising steps of: (a) forming a lipid dispersion in a solution made from triethylammonium sucrose octasulfate (TEA 8 SOS) and/or diethylammonium sucrose octasulfate (DEA 8 SOS) having a sulfate concentration ranging from 0.4 to 0.5 M and a pH between from 5 to 7, the lipids in said dispersion being 1,2-distearoyl-sn-glycero-3-phosphocholine (DSPC), cholesterol and methoxy-terminated polyethylene glycol (MW 2000)-distearoylphosphatidyl ethanolamine (MPEG-2000-DSPE) in an about 3:2:0.015, respectively, mole ratio; (b) extruding the lipid dispersion at a temperature ranging from 60 to 70 °C through at least one 0.1 μm membrane to form liposomes; (c) substantially removing ions derived from TEA 8 SOS and/or DEA 8 SOS that are outside the liposomes; (d) contacting the liposomes at a temperature ranging from 60 to 70 °C with a solution made using irinotecan free base or irinotecan salt, thereby forming a preparation of liposomes encapsulating irinotecan; (e) substantially removing substances derived from the TEA 8 SOS and/or DEA 8 SOS and irinotecan ingredients that are outside the liposomes; and (f) adjusting the pH of the composition to be a pH ranging from 7.25 to 7.5. (a) forming a lipid dispersion in a solution made from triethylammonium sucrose octasulfate (TEA 8 SOS) and/or diethylammonium sucrose octasulfate (DEA 8 SOS) having a sulfate concentration ranging from 0.4 to 0.5 M and a pH between from 5 to 7, the lipids in said dispersion being 1,2-distearoyl-sn-glycero-3-phosphocholine (DSPC), cholesterol and methoxy-terminated polyethylene glycol (MW 2000)-distearoylphosphatidyl ethanolamine (MPEG-2000-DSPE) in an about 3:2:0.015, respectively, mole ratio; (b) extruding the lipid dispersion at a temperature ranging from 60 to 70 °C through at least one 0.1 μm membrane to form liposomes; (c) substantially removing ions derived from TEA 8 SOS and/or DEA 8 SOS that are outside the liposomes; (d) contacting the liposomes at a temperature ranging from 60 to 70 °C with a solution made using irinotecan free base or irinotecan salt, thereby forming a preparation of liposomes encapsulating irinotecan; (e) substantially removing substances derived from the TEA 8 SOS and/or DEA 8 SOS and irinotecan ingredients that are outside the liposomes; and (f) adjusting the pH of the composition to be a pH ranging from 7.25 to 7.5.
Hammer drill and/or chisel hammer comprising a drive motor , an impact mechanism and a tool holder for receiving a tool , the impact mechanism having a rivet header which is displaceable axially (AR) in a riveting guide and acts on the tool , the impact mechanism having an idle impact damper element and a rebound impact damper element which are formed in one piece with one another and thus form a combination damper element , characterized in that the riveting guide is arranged outside, preferably exclusively outside of the combination damper element .
Screen segment for mounting in a conical support basket of a screen centrifuge and for forming a screen basket formed from a plurality of screen segments inside the support basket of a screen centrifuge with an inlet side and an outlet side, wherein the screen segment according to an angular section of the conical form of the support basket widens from an inlet edge for arrangement on the inlet side of the screen centrifuge in transport direction of the screening material to a broader outlet edge for arrangement on the outlet side of the screen centrifuge, wherein the screen segment in transport direction of the screening material is configured as multiple parts from at least two segment parts mountable independently of one another, wherein the screen segment has at least one inlet segment part with the inlet edge for arrangement on the inlet side and an outlet segment part with the wider outlet edge for arrangement on the outlet side, in particular the screen segment is formed in two parts in transport direction of the screening material, characterised in that the outlet segment part has at least one tab on its underside, which can be engaged through by at least one screw and can be fixed detachably by means of the screw , in particular can be fixed on a flange on the outlet side of the support basket .
An over-voltage protection circuit for mobile devices comprising: - at least one connector comprising an electrical contact for connecting an external device, and at least two internal contacts to a circuitry , - an electrically operated switch connected between said electrical contact of said connector and one of said two internal contacts to said circuitry , - a control element for operating said switch , - a first voltage determining unit configured to determine a voltage at a point between said electrical contact of said connector and said electrically operated switch, and the first voltage determining unit is connected to said control element , wherein - said control element is configured to open or close said switch based on said determined voltage, - a switch matrix interconnected between the electrical contact of said connector and at least two of said internal contacts to said circuitry , to reallocate the connections between the electrical contact of said connector and said at least two internal contacts to said circuitry . - at least one connector comprising an electrical contact for connecting an external device, and at least two internal contacts to a circuitry , - an electrically operated switch connected between said electrical contact of said connector and one of said two internal contacts to said circuitry , - a control element for operating said switch , - a first voltage determining unit configured to determine a voltage at a point between said electrical contact of said connector and said electrically operated switch, and the first voltage determining unit is connected to said control element , wherein - said control element is configured to open or close said switch based on said determined voltage, - a switch matrix interconnected between the electrical contact of said connector and at least two of said internal contacts to said circuitry , to reallocate the connections between the electrical contact of said connector and said at least two internal contacts to said circuitry .
Tank for food products comprising: an external surface , an internal surface , a compartment , an inlet for loading food products in the compartment , at least one outlet for discharging the food products from the compartment , first closing/opening means that can be alternately disposed in a closing position, wherein said first closing/opening means close said inlet , and an opening position, wherein said first closing/opening means do not close said inlet , and second closing/opening means that can be alternately disposed in a closing position, wherein said second closing/opening means close said outlet , and an opening position, wherein said second closing/opening means do not close said outlet ; wherein said internal surface of the tank comprises a hydro-oleophobic surface layer, characterized in that said hydro-oleophobic surface layer comprises nanometric hydro-oleophobic particles; and said first closing/opening means comprise a door that is hinged to the tank in the inlet ; said second closing/opening means comprise a door that is hinged to the tank in the outlet . wherein said internal surface of the tank comprises a hydro-oleophobic surface layer, characterized in that said hydro-oleophobic surface layer comprises nanometric hydro-oleophobic particles; and said first closing/opening means comprise a door that is hinged to the tank in the inlet ; said second closing/opening means comprise a door that is hinged to the tank in the outlet .
Mode expander isolator for a fiber laser amplifier , comprising: an optical fiber input ; and an optical fiber output , characterized in that said optical fiber input is for coupling a single mode optical fiber having a uniform first core diameter and propagating a light beam with said mode expander isolator; said optical fiber output is for coupling a large mode area (LMA) optical fiber having a uniform second core diameter and propagating an expanded mode light beam with said mode expander isolator; said mode expander isolator further comprising: an isolator , positioned between said optical fiber input and said optical fiber output, for preventing back-reflected laser light from reaching said optical fiber input; and at least one lens , wherein said isolator and said at least one lens form a free space mode expander for expanding a mode of said light beam to said expanded mode light beam in free space; wherein said uniform second core diameter is larger than said uniform first core diameter; and wherein said mode expander isolator enables simultaneous prevention of said back-reflected laser light and mode expansion of said light beam in free space from said single mode optical fiber to a fundamental mode of said LMA optical fiber. an optical fiber input ; and an optical fiber output , characterized in that said optical fiber input is for coupling a single mode optical fiber having a uniform first core diameter and propagating a light beam with said mode expander isolator; said optical fiber output is for coupling a large mode area (LMA) optical fiber having a uniform second core diameter and propagating an expanded mode light beam with said mode expander isolator; said mode expander isolator further comprising: an isolator , positioned between said optical fiber input and said optical fiber output, for preventing back-reflected laser light from reaching said optical fiber input; and at least one lens , an isolator , positioned between said optical fiber input and said optical fiber output, for preventing back-reflected laser light from reaching said optical fiber input; and at least one lens , wherein said isolator and said at least one lens form a free space mode expander for expanding a mode of said light beam to said expanded mode light beam in free space; wherein said uniform second core diameter is larger than said uniform first core diameter; and wherein said mode expander isolator enables simultaneous prevention of said back-reflected laser light and mode expansion of said light beam in free space from said single mode optical fiber to a fundamental mode of said LMA optical fiber.
System comprising a heating assembly and a substantially vertical support to which said heating assembly is fixed, the heating assembly comprising at least two electric heating modules positioned against the vertical support, one of the modules, referred to as upper module , being at a level higher than that of the other module, referred to as lower module , each electric heating module comprising a body which contains at least one electric heating element and which is bounded externally by a wall, the wall being provided, on the one hand, with one or more air inlet openings formed in its lower part and, on the other hand, with one or more air outlet openings positioned in its upper part for the circulation of an upward air flow inside said body, notably over said at least one electric heating element that is to be cooled, at least a part of the air outlet opening or openings of each module being oriented in such a way as to deflect at least a part of the air flow leaving said module in such a way that, for the lower and upper modules, said at least part of the air flow heated by said at least one electric heating element and leaving the lower module is deflected away from the upper module , characterized in that each module comprises an additional wall positioned in front of the frontal wall of the body of the module and at a distance from said wall so as to form a front facade for the body .
A method of diffusion bonding metal or metal alloy containing workpieces, characterised in that the method comprises the following steps: (a) coating the bonding surfaces of the metal or metal alloy containing workpieces with a layer of a coating material, (b) abrading the coated bonding surfaces to remove surface oxide, the coating material being in a liquid form, (c) removing excess coating material or excess abraded metal or metal alloy containing workpiece material from the coated bonding surfaces, and (d) diffusion bonding the coated bonding surfaces of the metal or metal alloy containing workpieces together, wherein the coating material is operable to form a stable barrier on the bonding surfaces of the metal or metal alloy containing workpieces under ambient conditions, and evaporates from the bonding surfaces of the metal or metal alloy containing workpieces under diffusion bonding conditions. (a) coating the bonding surfaces of the metal or metal alloy containing workpieces with a layer of a coating material, (b) abrading the coated bonding surfaces to remove surface oxide, the coating material being in a liquid form, (c) removing excess coating material or excess abraded metal or metal alloy containing workpiece material from the coated bonding surfaces, and (d) diffusion bonding the coated bonding surfaces of the metal or metal alloy containing workpieces together,
A switch system , comprising: a mechanical switch for switching electrical currents, comprising a closed state and an open state; an actuator , configured to change the state of the mechanical switch , wherein the actuator comprises a Thomson-coil system including a Thomson coil ; characterised in that the mechanical switch and the Thomson coil are electrically connected in series. a mechanical switch for switching electrical currents, comprising a closed state and an open state; an actuator , configured to change the state of the mechanical switch , wherein the actuator comprises a Thomson-coil system including a Thomson coil ; characterised in that the mechanical switch and the Thomson coil are electrically connected in series.
A display device comprising: a substrate including a glass material and/or a polymer resin; an insulating layer on a top surface of the substrate ;a plurality of light-emitting diodes (OLED) on the insulating layer and including two light-emitting diodes (OLED) spaced apart from each other and having a transmission area (A1) therebetween; and a rear cover layer on a rear surface of the substrate and including a first portion of the rear cover layer located in the transmission area (A1), characterized in that the rear surface of the substrate includes a plurality of concave structures (D) located in the transmission area (A1), the first portion covers the plurality of concave structures (D) and includes a transparent material, wherein the plurality of concave structures (D) is filled with the transparent material of the first portion , and wherein a difference between the refractive index of the first portion and a refractive index of the substrate is 0.5 or less. a substrate including a glass material and/or a polymer resin; an insulating layer on a top surface of the substrate ;a plurality of light-emitting diodes (OLED) on the insulating layer and including two light-emitting diodes (OLED) spaced apart from each other and having a transmission area (A1) therebetween; and a rear cover layer on a rear surface of the substrate and including a first portion of the rear cover layer located in the transmission area (A1), characterized in that the rear surface of the substrate includes a plurality of concave structures (D) located in the transmission area (A1), the first portion covers the plurality of concave structures (D) and includes a transparent material, wherein the plurality of concave structures (D) is filled with the transparent material of the first portion , and wherein a difference between the refractive index of the first portion and a refractive index of the substrate is 0.5 or less.
A nozzle for a turbine system , the nozzle comprising: an airfoil comprising exterior surface defining a pressure side and a suction side extending between a leading edge and a trailing edge , the airfoil further defining a tip and a root ; an inner sidewall connected to the airfoil at the tip , the inner sidewall including a peripheral edge defining a pressure side slash face , a suction side slash face , a leading edge face , and a trailing edge face ; an outer sidewall connected to the airfoil at the root , the outer sidewall including a peripheral edge defining a pressure side slash face , a suction side slash face , a leading edge face , and a trailing edge face ; and characterized in that the nozzle further comprises a stiffening member extending circumferentially on at least one of a radially inner side of the inner sidewall and a radially outer side of the outer sidewall , wherein at least one of the inner sidewall pressure side slash face , the inner sidewall suction side slash face , the outer sidewall pressure side slash face , or the outer sidewall suction side slash face includes a first swept surface extending at a first angle relative to an axis of the turbine system and a second swept surface extending at a second angle relative to an axis of the turbine system , the first swept surface and the second swept surface meeting at an arc having a peak that is circumferentially aligned with the stiffening member . an airfoil comprising exterior surface defining a pressure side and a suction side extending between a leading edge and a trailing edge , the airfoil further defining a tip and a root ; an inner sidewall connected to the airfoil at the tip , the inner sidewall including a peripheral edge defining a pressure side slash face , a suction side slash face , a leading edge face , and a trailing edge face ; an outer sidewall connected to the airfoil at the root , the outer sidewall including a peripheral edge defining a pressure side slash face , a suction side slash face , a leading edge face , and a trailing edge face ; and characterized in that the nozzle further comprises a stiffening member extending circumferentially on at least one of a radially inner side of the inner sidewall and a radially outer side of the outer sidewall , wherein at least one of the inner sidewall pressure side slash face , the inner sidewall suction side slash face , the outer sidewall pressure side slash face , or the outer sidewall suction side slash face includes a first swept surface extending at a first angle relative to an axis of the turbine system and a second swept surface extending at a second angle relative to an axis of the turbine system , the first swept surface and the second swept surface meeting at an arc having a peak that is circumferentially aligned with the stiffening member .
An ignition plug (11; 60; 70), comprising: a center electrode extending along an axis (O) of the ignition plug (11; 60; 70); a bottomed cylindrical insulator enclosing a front end portion of the center electrode ; and a cylindrical metal shell holding therein the insulator , the insulator having, on a front end side thereof, a protruding portion (32; 61; 71) protruding from and located frontward of a front end of the metal shell , characterized in that a difference between an outer diameter (D4) of the center electrode and an inner diameter (D3) of the insulator is 0.01 mm or more; a length (L) of the protruding portion (32; 61; 71) in a direction of the axis (O) is 6.7 mm to 12.7 mm; and the following condition is satisfied: 1.07 ≤ S / V 1 ≤ 1.35 where S is an area of an outer surface of the protruding portion (32; 61; 71); and V1 is a volume of the protruding portion (32; 61; 71). a center electrode extending along an axis (O) of the ignition plug (11; 60; 70); a bottomed cylindrical insulator enclosing a front end portion of the center electrode ; and a cylindrical metal shell holding therein the insulator , the insulator having, on a front end side thereof, a protruding portion (32; 61; 71) protruding from and located frontward of a front end of the metal shell , characterized in that a difference between an outer diameter (D4) of the center electrode and an inner diameter (D3) of the insulator is 0.01 mm or more; a length (L) of the protruding portion (32; 61; 71) in a direction of the axis (O) is 6.7 mm to 12.7 mm; and the following condition is satisfied: 1.07 ≤ S / V 1 ≤ 1.35 where S is an area of an outer surface of the protruding portion (32; 61; 71); and V1 is a volume of the protruding portion (32; 61; 71).
An inhaler device comprising two flexible substrates and a membrane located between the two flexible substrates , characterized in that the two flexible substrates being connected at two opposing edges and unconnected at two further opposing edges, wherein the device is configured to move between a first configuration where the two flexible substrates are substantially flat and in contact with one another, and a second configuration where the two flexible substrates are flexed such that a channel is formed between the two flexible substrates , wherein a particulate active agent is present on the membrane and the membrane is configured to span the channel between the two flexible substrates when the inhaler device is in the second configuration, such that the active agent provided on the membrane may be inhaled by a user when the inhaler device is in the second configuration.