mhurhangee/ep-ind-claims huggingface dataset:
A method for impregnating a polymer substrate with a pharmaceutical agent, comprising: contacting the polymer substrate with a first volume of densified fluid substantially saturated with one or more pharmaceutical agents, said contacting under conditions effective for impregnating the substrate with amounts of the one or more pharmaceutical agents; removing fluid of said first volume from the polymer substrate so as to provide the one or more pharmaceutical agents impregnated in the polymer substrate at a first level, wherein said removing fluid of said first volume step comprises reducing pressure on the densified fluid to evaporate the fluid; contacting the polymer substrate with a second volume of densified fluid substantially saturated with the one or more pharmaceutical agents, said contacting under conditions effective for impregnating the polymer substrate with additional amounts of the one or more pharmaceutical agents; and removing fluid of said second volume from the polymer substrate so as to provide the one or more pharmaceutical agents impregnated in the polymer substrate at a second level higher than the first level, wherein said removing fluid of said second volume step comprises reducing pressure on the densified fluid to evaporate the fluid. contacting the polymer substrate with a first volume of densified fluid substantially saturated with one or more pharmaceutical agents, said contacting under conditions effective for impregnating the substrate with amounts of the one or more pharmaceutical agents; removing fluid of said first volume from the polymer substrate so as to provide the one or more pharmaceutical agents impregnated in the polymer substrate at a first level, wherein said removing fluid of said first volume step comprises reducing pressure on the densified fluid to evaporate the fluid; contacting the polymer substrate with a second volume of densified fluid substantially saturated with the one or more pharmaceutical agents, said contacting under conditions effective for impregnating the polymer substrate with additional amounts of the one or more pharmaceutical agents; and removing fluid of said second volume from the polymer substrate so as to provide the one or more pharmaceutical agents impregnated in the polymer substrate at a second level higher than the first level, wherein said removing fluid of said second volume step comprises reducing pressure on the densified fluid to evaporate the fluid.
A furniture hinge, including: - a fitting portion to be fixed to a furniture carcass, - a hinge cup pivotally connected to the fitting portion by at least one hinge lever, wherein the hinge lever is connected to the hinge cup by a hinge axis, - a damping device for dampening a relative movement between the fitting portion and the hinge cup, wherein the damping device is configured to be actuated by an actuating element, wherein the actuating element is formed separately from the hinge lever and is pivotally arranged within the hinge cup about a pivoting axis extending substantially parallel to the hinge axis of the hinge cup, and wherein the damping device includes at least one linear damper arranged on the outside of the hinge cup, the linear damper has at least one linearly displaceable piston, wherein the hinge cup and the linear damper(s) arranged on the hinge cup are configured to be arranged, in the mounting position, altogether within a cylindrical bore in the furniture part, - a transmission mechanism for converting a pivotal movement of the actuating element into linear movement of the piston of the linear damper, wherein the actuating element is permanently motionally coupled to the piston of the linear damper by the transmission mechanism, characterized in that the transmission mechanism includes at least one separately formed, pivotally mounted lever (10, 25) which is motionally coupled to the pivotally mounted actuating element. - a fitting portion to be fixed to a furniture carcass, - a hinge cup pivotally connected to the fitting portion by at least one hinge lever, wherein the hinge lever is connected to the hinge cup by a hinge axis, - a damping device for dampening a relative movement between the fitting portion and the hinge cup, wherein the damping device is configured to be actuated by an actuating element, wherein the actuating element is formed separately from the hinge lever and is pivotally arranged within the hinge cup about a pivoting axis extending substantially parallel to the hinge axis of the hinge cup, and wherein the damping device includes at least one linear damper arranged on the outside of the hinge cup, the linear damper has at least one linearly displaceable piston, wherein the hinge cup and the linear damper(s) arranged on the hinge cup are configured to be arranged, in the mounting position, altogether within a cylindrical bore in the furniture part, - a transmission mechanism for converting a pivotal movement of the actuating element into linear movement of the piston of the linear damper, wherein the actuating element is permanently motionally coupled to the piston of the linear damper by the transmission mechanism,
A dual-camera module assembly (200, 200', 200", 200"') for a mobile terminal, the dual-camera module assembly (200, 200', 200", 200"') comprising a first flexible printed circuit (21, 21'), a second flexible printed circuit (22, 22'), and a first camera module and a second camera module juxtaposed with the first camera module; the first flexible printed circuit (21, 21') comprising a first body (211, 211') and a first connecting end extending from the first body (211, 211'), the first body (211, 211') being connected to the first camera module, and the first connecting end being configured to be connected to a main circuit board of the mobile terminal; characterized in that the second flexible printed circuit (22, 22') comprises a second body (221, 221'), and an extension portion (222, 222') and a second connecting end (223, 223') sequentially extending from the second body (221, 221'), the second body (221, 221') being connected to the second camera module, the extension portion (222, 222') and the first body (211, 211') being arranged in a superposition manner, and the second connecting end (223, 223') being configured to be connected to the main circuit board of the mobile terminal; the first connecting end (212, 212') and the second connecting end (223, 223') are configured so that a smallest one of distances from the first connecting end (212, 212') to an antenna clearance zone of the main circuit board and distances from the second connecting end (223, 223') to the antenna clearance zone is greater than or equal to a predetermined value.
Device for providing a three-dimensional cushioning means for cushioning a void volume in a transport container, comprising a converting apparatus for converting a flat web-like starting material into the three-dimensional cushioning means and a receiving means for receiving at least regions of a stack of the web-like starting material folded in a zigzagging manner, characterized in that the receiving means comprises a first lateral, fixed and stationary, respectively, contact means for a first stack type which has a first width, and a second lateral, fixed and stationary, respectively, contact means for a second stack type which has a second width which is different from the first width, such that either a stack of the first stack type or a stack of the second stack type can be arranged in the receiving means in a centered manner relative to the same central axis.
Hairstyling apparatus comprising a body configured to handle the apparatus, a mandrel for styling hair which is hollow and which extends the body along a longitudinal axis, characterised in that it comprises two heating elements (31, 32) by heat conduction arranged on an inner wall of the mandrel and which extend along the inner wall of the mandrel.
A rosin-modified resin, having: a structural unit (ab) derived from a compound obtained by addition of an α,β-unsaturated carboxylic acid or acid anhydride thereof to a conjugated rosin acid, a structural unit (c) derived from an organic monobasic acid excluding the conjugated rosin acid, a structural unit (d) derived from an aliphatic polybasic acid anhydride, and a structural unit (e) derived from a polyol, wherein the weight ratio between the structural unit (ab) and the structural unit (c) is within a range from 100:110 to 100:350. a structural unit (ab) derived from a compound obtained by addition of an α,β-unsaturated carboxylic acid or acid anhydride thereof to a conjugated rosin acid, a structural unit (c) derived from an organic monobasic acid excluding the conjugated rosin acid, a structural unit (d) derived from an aliphatic polybasic acid anhydride, and a structural unit (e) derived from a polyol, wherein the weight ratio between the structural unit (ab) and the structural unit (c) is within a range from 100:110 to 100:350.
A coated paper sheet, containing at least one coating formed from an aqueous paper coating composition on one or both sides, containing a) at least one binding agent based on an aqueous polymer dispersion, b) at least one oxidised polyethylene wax, and c) at least one defoaming agent, wherein the paper sheet has, in the uncoated condition, a basis weight in the range of 30 to 130 g/m 2 and contains at least one cross-linked wet strength agent based on cross-linkable epichlorohydrin resins, melamine resins and/or urea-formaldehyde resins, and wherein the coating made from the aqueous paper coating composition is present on the paper sheet in a quantity, based on the dry weight of the paper coating composition, in the range of 1 to 10 g per square meter of paper sheet. a) at least one binding agent based on an aqueous polymer dispersion, b) at least one oxidised polyethylene wax, and c) at least one defoaming agent, wherein the paper sheet has, in the uncoated condition, a basis weight in the range of 30 to 130 g/m 2 and contains at least one cross-linked wet strength agent based on cross-linkable epichlorohydrin resins, melamine resins and/or urea-formaldehyde resins, and wherein the coating made from the aqueous paper coating composition is present on the paper sheet in a quantity, based on the dry weight of the paper coating composition, in the range of 1 to 10 g per square meter of paper sheet. the paper sheet has, in the uncoated condition, a basis weight in the range of 30 to 130 g/m 2 and contains at least one cross-linked wet strength agent based on cross-linkable epichlorohydrin resins, melamine resins and/or urea-formaldehyde resins, and wherein the coating made from the aqueous paper coating composition is present on the paper sheet in a quantity, based on the dry weight of the paper coating composition, in the range of 1 to 10 g per square meter of paper sheet.
A spark plug comprising: an insulator having an axial hole that extends along an axis line; a center electrode inserted within the axial hole; a metal shell disposed at an outer circumference of the insulator and having an inner circumference having formed thereon a shelf portion that bulges radially inward; and a ground electrode disposed at a front end of the metal shell, wherein the insulator includes: a first cylindrical portion formed at a position that opposes at least a part of the shelf portion; a truncated cone-shaped portion that is formed at a front end side of the first cylindrical portion and whose outer diameter reduces toward the front end side; and a second cylindrical portion formed at a front end side of the truncated cone-shaped portion, and a diameter C of the center electrode at a position opposing the shelf portion in a direction along the axis line is not larger than 2.2 mm, characterised in that a total I of a volume of the truncated cone-shaped portion and a volume of the second cylindrical portion, a volume E of the center electrode from a position at a rear end of the truncated cone-shaped portion to a position at a front end of the second cylindrical portion with respect to the direction along the axis line, and the diameter C satisfy the following formula: I / E ≥ 4.2333 C 2 − 19.79 ⁢ C + 24.869. an insulator having an axial hole that extends along an axis line; a center electrode inserted within the axial hole; a metal shell disposed at an outer circumference of the insulator and having an inner circumference having formed thereon a shelf portion that bulges radially inward; and a ground electrode disposed at a front end of the metal shell, wherein the insulator includes: a first cylindrical portion formed at a position that opposes at least a part of the shelf portion; a truncated cone-shaped portion that is formed at a front end side of the first cylindrical portion and whose outer diameter reduces toward the front end side; and a second cylindrical portion formed at a front end side of the truncated cone-shaped portion, and a diameter C of the center electrode at a position opposing the shelf portion in a direction along the axis line is not larger than 2.2 mm, characterised in that a first cylindrical portion formed at a position that opposes at least a part of the shelf portion; a truncated cone-shaped portion that is formed at a front end side of the first cylindrical portion and whose outer diameter reduces toward the front end side; and a second cylindrical portion formed at a front end side of the truncated cone-shaped portion, and a diameter C of the center electrode at a position opposing the shelf portion in a direction along the axis line is not larger than 2.2 mm, characterised in that a total I of a volume of the truncated cone-shaped portion and a volume of the second cylindrical portion, a volume E of the center electrode from a position at a rear end of the truncated cone-shaped portion to a position at a front end of the second cylindrical portion with respect to the direction along the axis line, and the diameter C satisfy the following formula: I / E ≥ 4.2333 C 2 − 19.79 ⁢ C + 24.869.
A method of preventing misuse of access authorisations of an ID-based access control system, comprising at least one access control device (1, 1') and a central server with which the at least one access control device (1, 1') is connectable for the purpose of data communication, characterised in that stored in a database of the central server is a set of data per customer medium which contains at least one contact address of the legal owner of the customer medium and which contains at least one ID of the customer medium, wherein at the time of the first interaction between a customer medium and an access control device (1, 1') of the access control system access is permitted in the event of valid access authorisation and at the same time or within a predetermined, configurable time interval after the interaction by way of the data set stored in the central server and the read-out ID of the customer medium, which is assigned to the access control authorisation, a message is sent to a contact address of the legal owner of the customer medium with a request to confirm that the customer medium is currently being used by him/her, wherein until a confirmation is sent by the legal user to the predefined contact address of the access control system, further access via the access control devices (1, 1') of the access control system and in the case of a post-payment scenario leaving of the area covered by the access control system is denied.
A coolant delivery manifold, comprising: a top surface including at least one supply cavity (455, 465) and at least one return cavity; and a bottom surface including an inner cavity and a surrounding outer cavity, wherein each of the at least one supply cavities (455, 465) includes an opening (457, 467) between a bottom portion of the supply cavity (455, 465) and at least one of the inner cavity or the surrounding outer cavity on the bottom surface, the opening (457, 467) adapted for transmission of fluid at a first temperature through the supply cavity (455, 465) to the inner cavity and transmission of a fluid at a second temperature different than the first temperature to the surrounding outer cavity, and wherein the at least one return cavity includes a plurality of apertures between the inner cavity on the bottom surface and the top surface, the plurality of apertures sized to receive a plurality of fluid return tubes (360, 460). a top surface including at least one supply cavity (455, 465) and at least one return cavity; and a bottom surface including an inner cavity and a surrounding outer cavity, wherein each of the at least one supply cavities (455, 465) includes an opening (457, 467) between a bottom portion of the supply cavity (455, 465) and at least one of the inner cavity or the surrounding outer cavity on the bottom surface, the opening (457, 467) adapted for transmission of fluid at a first temperature through the supply cavity (455, 465) to the inner cavity and transmission of a fluid at a second temperature different than the first temperature to the surrounding outer cavity, and wherein the at least one return cavity includes a plurality of apertures between the inner cavity on the bottom surface and the top surface, the plurality of apertures sized to receive a plurality of fluid return tubes (360, 460).
A method for tanning an animal skin comprising the following phases: a) putting said animal skin in contact with a tanning bath comprising: - water, - at least one C 2 -C 8 aliphatic dialdehyde in a quantity within the range of 2%-30%, - at least one non-ionic surfactant in a quantity within the range of 0.1% - 20%, said tanning bath having a pH within the range of 1 - 5 and a density within the range of 3 to 10°Bé; b) bringing the pH of the tanning bath to a pH higher than 5 and lower than or equal to 8; c) washing said skin, obtaining a tanned animal skin; d) putting said tanned animal skin in contact with at least one tanning bath comprising: - water, - at least one C 2 -C 8 aliphatic dialdehyde in a quantity within the range of 2%-30%, said tanning bath having a pH within the range of 1 - 5 and a density within the range of 3 to 10°Bé and being substantially free of said non-ionic surfactant; the above percentages being weight percentages referred to the pelt weight of said skin. a) putting said animal skin in contact with a tanning bath comprising: - water, - at least one C 2 -C 8 aliphatic dialdehyde in a quantity within the range of 2%-30%, - at least one non-ionic surfactant in a quantity within the range of 0.1% - 20%, said tanning bath having a pH within the range of 1 - 5 and a density within the range of 3 to 10°Bé; - water, - at least one C 2 -C 8 aliphatic dialdehyde in a quantity within the range of 2%-30%, - at least one non-ionic surfactant in a quantity within the range of 0.1% - 20%, b) bringing the pH of the tanning bath to a pH higher than 5 and lower than or equal to 8; c) washing said skin, obtaining a tanned animal skin; d) putting said tanned animal skin in contact with at least one tanning bath comprising: - water, - at least one C 2 -C 8 aliphatic dialdehyde in a quantity within the range of 2%-30%, said tanning bath having a pH within the range of 1 - 5 and a density within the range of 3 to 10°Bé and being substantially free of said non-ionic surfactant; the above percentages being weight percentages referred to the pelt weight of said skin. - water, - at least one C 2 -C 8 aliphatic dialdehyde in a quantity within the range of 2%-30%,
A resin cured body for dental cutting processing used for cutting and machining using a dental CAD/CAM system, wherein the resin cured body consists of the cured body of a composition comprising: (a) an inorganic glass filler, (b) a polymerizable monomer, and (c) a polymerization initiator, characterized in that the inorganic glass filler contains 55 wt.% or more of an element belonging to group II and/or group XIII of the periodic table in terms of an oxide based on the total amount of the (a) inorganic glass filler, and has an average particle diameter in the range from 0.01 to 10μm, wherein the average particle diameter is as measured according to the descriptioin. (a) an inorganic glass filler, (b) a polymerizable monomer, and (c) a polymerization initiator,
Long-term heat storage device for the long-term storage of solar energy and other types of energy comprising a heat storage mass, characterised by a thermally insulated packed bed of rock bulk material acting as a heat storage mass consisting of a material suitable for high operating temperatures, in particular temperatures between 100 degrees C and 1000 degrees C, preferably between 300 degrees C and 900 degrees C, in which the rock bulk material and an air inlet and air outlet are enveloped all-around or for the most part by a powder bulk material (5, 16), in particular an ash bulk material, more particularly with the interspersion of a shell of shaped rocks (2, 6, 17).
Process for the preparation of a polyethylene powder comprising at least one additive, comprising: - preparing a solution comprising at least one additive, operating at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, at a rotation speed ranging from 1 rpm to100 rpm, preferably ranging from 20 rpm to 80 rpm, for a time ranging from 10 minutes to 50 minutes, preferably ranging from 15 minutes to 45 minutes; - adding said solution to at least one polyethylene powder obtained through gas-phase (co)polymerization, and maintaining the whole under stirring, at a rotation speed ranging from 10 rpm to 100 rpm, preferably ranging from 30 rpm to 70 rpm, at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, for a time ranging from 10 minutes to 60 minutes, preferably ranging from 15 minutes to 50 minutes. - preparing a solution comprising at least one additive, operating at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, at a rotation speed ranging from 1 rpm to100 rpm, preferably ranging from 20 rpm to 80 rpm, for a time ranging from 10 minutes to 50 minutes, preferably ranging from 15 minutes to 45 minutes; - adding said solution to at least one polyethylene powder obtained through gas-phase (co)polymerization, and maintaining the whole under stirring, at a rotation speed ranging from 10 rpm to 100 rpm, preferably ranging from 30 rpm to 70 rpm, at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, for a time ranging from 10 minutes to 60 minutes, preferably ranging from 15 minutes to 50 minutes.